public double areaTri(Point3d p1, Point3d p2, Point3d p3)
{
double a = p1.DistanceTo(p2);
double b = p1.DistanceTo(p3);
double c = p2.DistanceTo(p3);
double p = (a + b + c) / 2;
return Math.Sqrt(p * (p - a) * (p - b) * (p - c));
}
public double[] ComputeWeight(Point3d p1, Point3d p2, Point3d p3, Vector3d v)
{
Vector3d N = new Plane(p1, p2, p3).Normal;
if (N.IsParallelTo(v) == -1)
{
double[] ds = new Double[3]; return ds;
}
Vector3d y2 = Vector3d.CrossProduct(v, N);
v = Vector3d.CrossProduct(y2, N);
double t = p1.DistanceTo(p2) + p2.DistanceTo(p3) + p3.DistanceTo(p1);
v.Unitize(); v *= t;
Point3d cen = (p1 + p2 + p3) / 3;
Line l1 = new Line(cen - v, cen + v);
Point3d P1 = l1.ClosestPoint(p1, true);
Point3d P2 = l1.ClosestPoint(p2, true);
Point3d P3 = l1.ClosestPoint(p3, true);
double t1 = (P1.DistanceTo(l1.From)) / l1.Length;
double t2 = (P2.DistanceTo(l1.From)) / l1.Length;
double t3 = (P3.DistanceTo(l1.From)) / l1.Length;
if ((t1 < t2) && (t2 < t3))
{
double[] ds = { 0, (t2 - t1) / (t3 - t1), 1 }; return ds;
}
else if (t1 < t3 && t3 < t2)
{
double[] ds = { 0, 1, (t3 - t1) / (t2 - t1) }; return ds;
}
////
else if (t2 < t1 && t1 < t3)
{
double[] ds = { (t1 - t2) / (t3 - t2), 0, 1 }; return ds;
}
else if (t2 < t3 && t3 < t1)
{
double[] ds = { 1, 0, (t3 - t2) / (t1 - t2) }; return ds;
}
////
else if (t3 < t1 && t1 < t2)
{
double[] ds = { (t1 - t3) / (t2 - t3), 1, 0 }; return ds;
}
else if (t3 < t2 && t2 < t1)
{
double[] ds = { 1, (t2 - t3) / (t1 - t3), 0 }; return ds;
}
else
{
double[] ds = new Double[3]; return ds;
}
}
public double WeightedCombo(Point3d Pos, List<Point3d> SizePoints, List<double> Sizes, int Falloff, double BVal, double BWeight)
{
double WeightedSize = 0, WeightSum = 0;
double[] Weighting = new double[SizePoints.Count];
for (int j = 0; j < SizePoints.Count; j++)
{
Weighting[j] = Math.Pow(Pos.DistanceTo(SizePoints[j]), -1.0 * Falloff);
WeightSum += Weighting[j];
}
WeightSum += BWeight;
WeightedSize += BWeight * (1.0 / WeightSum) * BVal;
for (int j = 0; j < SizePoints.Count; j++)
{
WeightedSize += Weighting[j] * (1.0 / WeightSum) * Sizes[j];
}
return WeightedSize;
}
protected override void SolveInstance(IGH_DataAccess DA)
{
Point3d person = new Point3d(0, 0, 0);
int angle = 0;
Vector3d direction = new Vector3d(0, 0, 0);
double viewDistance = 0;
List <Mesh> obstacles = new List <Mesh>();
List <Ray3d> viewRays = new List <Ray3d>();
List <Point3d> Rayhits = new List <Point3d>();
int fovfree = 0;
Mesh meshes = new Mesh();
DA.GetData(0, ref person);
DA.GetData(1, ref direction);
DA.GetData(2, ref viewDistance);
DA.GetData(3, ref angle);
DA.GetDataList(4, obstacles);
int viewRes = angle;
foreach (Mesh mesh in obstacles)
{
meshes.Append(mesh);
}
direction.Z = 0;
direction.Rotate(Rhino.RhinoMath.ToRadians(angle / 2), new Vector3d(0, 0, 1));
Line viewAngleA = new Line(person, direction, viewDistance);
direction.Rotate(-Rhino.RhinoMath.ToRadians(angle / 2) * 2, new Vector3d(0, 0, 1));
Line viewAngleB = new Line(person, direction, viewDistance);
List <Line> Liness = new List <Line>();
Liness.Add(viewAngleA);
Liness.Add(viewAngleB);
for (int i = 0; i < viewRes + 2; i++)
{
if (i > 1)
{
direction.Rotate(Rhino.RhinoMath.ToRadians((angle / viewRes)), new Vector3d(0, 0, 1));
}
Ray3d ray = new Ray3d(person, direction);
double rayT = Rhino.Geometry.Intersect.Intersection.MeshRay(meshes, ray);
Vector3d newvec = Rhino.Geometry.Vector3d.Multiply(direction, viewDistance);
if (rayT > 0)
{
if (person.DistanceTo(ray.PointAt(rayT)) < viewDistance)
{
Rayhits.Add(ray.PointAt(rayT));
}
else
{
Rayhits.Add(new Point3d(newvec.X + person.X, newvec.Y + person.Y, person.Z));
fovfree = fovfree + 1;
}
}
else
{
Rayhits.Add(new Point3d(newvec.X + person.X, newvec.Y + person.Y, person.Z));
fovfree = fovfree + 1;
}
}
Mesh viewMesh = new Mesh();
viewMesh.Vertices.UseDoublePrecisionVertices = true;
//Make mesh from hitspoints
viewMesh.Vertices.Add(new Point3f((float)person.X, (float)person.Y, (float)person.Z));
viewMesh.VertexColors.Add(System.Drawing.Color.Ivory);
for (int i = 0; i < Rayhits.Count; i++)
{
viewMesh.Vertices.Add(new Point3f((float)Rayhits[i].X, (float)Rayhits[i].Y, (float)Rayhits[i].Z));
viewMesh.VertexColors.Add(System.Drawing.Color.Ivory);
}
for (int i = 0; i < (viewRes + 2); i++)
{
viewMesh.Faces.AddFace(0, i, i + 1);
}
viewMesh.Faces.RemoveAt(0);
DA.SetData(0, viewMesh);
DA.SetData(1, fovfree);
}
/// <summary>
/// Initializes a new ellipse from a center point and the two semiaxes intersections.
/// </summary>
/// <param name="center">A center for the ellipse. The avarage of the foci.</param>
/// <param name="second">The intersection of the ellipse X axis with the ellipse itself.</param>
/// <param name="third">A point that determines the radius along the Y semiaxis.
/// <para>If the point is at right angle with the (center - second point) vector,
/// it will be the intersection of the ellipse Y axis with the ellipse itself.</para>
/// </param>
public Ellipse(Point3d center, Point3d second, Point3d third)
{
m_plane = new Plane(center, second, third);
m_radius1 = center.DistanceTo(second);
m_radius2 = center.DistanceTo(third);
}
public double DistanceTo(Point3d testPoint, bool limitToFiniteSegment, out Point3d pointOnLine)
{
pointOnLine = ClosestPoint(testPoint, limitToFiniteSegment);
return(pointOnLine.DistanceTo(testPoint));
}
/// <summary>
/// 반시계 방향 기준으로 경계 안에 그릴 수 있는 최장의 선을 반환합니다. 기준점이 경계를 벗어나는 경우는 PCXStrict와 동일합니다.
/// </summary>
public static Line PCXLongest(Point3d basePt, Polyline boundary, Vector3d direction)
{
double onCurveTolerance = 0.5;
double samePtTolerance = 0.005;
double parallelTolerance = 0.005;
Point3d longestEnd = basePt;
//Get all crossing points.
List <Point3d> allCrossPts = GetAllCrossPoints(basePt, boundary, direction, onCurveTolerance);
allCrossPts.Sort((a, b) => (basePt.DistanceTo(a).CompareTo(basePt.DistanceTo(b))));
//Set compare points.
List <Point3d> boundaryPt = new List <Point3d>(boundary);
if (boundary.IsClosed)
{
boundaryPt.RemoveAt(boundaryPt.Count - 1);
}
//Find end point of longest line.
foreach (Point3d i in allCrossPts)
{
longestEnd = i;
//seive1: Remove same as basePt.
if (i.DistanceTo(basePt) < samePtTolerance)
{
continue;
}
//seive2: End if not vertex.
int vertexIndex = boundaryPt.FindIndex(n => n.DistanceTo(i) < samePtTolerance);
bool isVertex = vertexIndex != -1;
if (!isVertex)
{
break;
}
//seive3: End if not concave(& anti-parallel).
Vector3d toPre = boundaryPt[(boundaryPt.Count + vertexIndex - 1) % boundaryPt.Count] - boundaryPt[vertexIndex];
Vector3d toPost = boundaryPt[(boundaryPt.Count + vertexIndex + 1) % boundaryPt.Count] - boundaryPt[vertexIndex];
Convexity cnv = VectorTools.CheckConvexity(toPre, toPost, parallelTolerance);
if (cnv == Convexity.Convex || cnv == Convexity.Parallel)
{
break;
}
//seive4: Continue if not between.
if (!VectorTools.IsBetweenVector(toPre, toPost, -direction))
{
continue;
}
//seive5: End if pre or post is not parallel to direction.
bool isPreDirParallel = Math.Abs(toPre * direction / (toPre.Length * direction.Length)) > 1 - parallelTolerance;
bool isPostDirParallel = Math.Abs(toPost * direction / (toPost.Length * direction.Length)) > 1 - parallelTolerance;
if (isPreDirParallel || isPostDirParallel)
{
continue;
}
//seive6: Continue if passable.
Vector3d perpToDir = direction;
perpToDir.Rotate(Math.PI / 2, Vector3d.ZAxis);
double preDirDot = toPre * perpToDir;
double postDirDot = toPost * perpToDir;
if (preDirDot * postDirDot > 0)
{
continue;
}
break;
}
return(new Line(basePt, longestEnd));
}
private bool CursorHasMoved()
{
return(_secondPoint.DistanceTo(_prevPoint) > 1e-6);
}
/// <summary>
/// Initializes a new ellipse from a center point and the two semiaxes intersections.
/// </summary>
/// <param name="center">A center for the ellipse. The avarage of the foci.</param>
/// <param name="second">The intersection of the ellipse X axis with the ellipse itself.</param>
/// <param name="third">A point that determines the radius along the Y semiaxis.
/// <para>If the point is at right angle with the (center - second point) vector,
/// it will be the intersection of the ellipse Y axis with the ellipse itself.</para>
/// </param>
public Ellipse(Point3d center, Point3d second, Point3d third)
{
m_plane = new Plane(center, second, third);
m_radius1 = center.DistanceTo(second);
m_radius2 = center.DistanceTo(third);
}
private bool checkIfOnLine(Point3d pt1, Point3d pt2, Point3d pttested)
{
double num = pttested.DistanceTo(pt1);
double num2 = pttested.DistanceTo(pt2);
double num3 = pt1.DistanceTo(pt2);
return ((num + num2) > num3);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
int year = 2017;
//int tasks = 1;
//if (this.mt) tasks = Environment.ProcessorCount;
int tasks = Environment.ProcessorCount;
ParallelOptions paropts = new ParallelOptions {
MaxDegreeOfParallelism = tasks
};
//ParallelOptions paropts_1cpu = new ParallelOptions { MaxDegreeOfParallelism = 1 };
//////////////////////////////////////////////////////////////////////////////////////////
/// INPUTS
int reclvl = 0;
if (!DA.GetData(0, ref reclvl))
{
return;
}
bool drawviewfactors = false;
if (!DA.GetData(1, ref drawviewfactors))
{
drawviewfactors = false;
}
bool drawcumskymatrix = false;
if (!DA.GetData(2, ref drawcumskymatrix))
{
drawcumskymatrix = false;
}
bool draw_sunpath = true;
if (!DA.GetData(3, ref draw_sunpath))
{
draw_sunpath = true;
}
bool draw_solarvec = true;
if (!DA.GetData(4, ref draw_solarvec))
{
draw_solarvec = true;
}
List <int> hoy = new List <int>();
if (!DA.GetDataList(5, hoy))
{
return;
}
List <double> loc = new List <double>();
if (!DA.GetDataList(6, loc))
{
return;
}
double longitude = loc[0];
double latitude = loc[1];
List <double> dni = new List <double>();
List <double> dhi = new List <double>();
DA.GetDataList(7, dni);
DA.GetDataList(8, dhi);
double domesize = 1.2;
if (!DA.GetData(9, ref domesize))
{
domesize = 1.2;
}
List <Mesh> context = new List <Mesh>();
DA.GetDataList(10, context);
Point3d sp = new Point3d();
if (!DA.GetData(11, ref sp))
{
return;
}
//////////////////////////////////////////////////////////////////////////////////////////
/// size of skydome
Point3d anchor = sp;
Point3d bb_furthest_point; // max distance to furthest corner of context
double bb_max_distance = double.MinValue;
if (context.Count > 0)
{
Mesh context_joined = new Mesh();
foreach (Mesh msh in context)
{
context_joined.Append(msh);
}
BoundingBox bb_context = context_joined.GetBoundingBox(false);
if (bb_context.IsDegenerate(-1.0) == 4)
{
bb_furthest_point = new Point3d(sp.X + 1.0, sp.Y + 1.0, sp.Z + 1.0);
}
else
{
Point3d[] _pts = bb_context.GetCorners();
int _p_index = 0;
for (int i = 0; i < _pts.Length; i++)
{
double _d = sp.DistanceTo(_pts[i]);
if (_d > bb_max_distance)
{
bb_max_distance = _d;
_p_index = i;
}
}
bb_furthest_point = _pts[_p_index];
}
}
else
{
bb_furthest_point = new Point3d(sp.X + 1.0, sp.Y + 1.0, sp.Z + 1.0);
}
Vector3d vec_sp = bb_furthest_point - sp;
vec_sp = Vector3d.Multiply(vec_sp, domesize);
double vec_sp_len = vec_sp.Length;
//////////////////////////////////////////////////////////////////////////////////////////
/// SKYDOME
/// View factors and/or Cumulative SkyMatrix
SkyDome dome = new SkyDome(reclvl);
// create 2 meshes, one with obstructed views (make it black transparent), and one unobstructed (regular GH_Mesh color)
Mesh meshObstructed = new Mesh();
foreach (double[] p in dome.VertexVectorsSphere)
{
Vector3d vec = new Vector3d(p[0], p[1], p[2]);
vec = Vector3d.Multiply(vec_sp_len, vec);
meshObstructed.Vertices.Add(vec + sp);
}
foreach (int[] f in dome.Faces)
{
meshObstructed.Faces.AddFace(f[0], f[1], f[2]);
}
meshObstructed.UnifyNormals();
if (drawviewfactors)
{
List <Vector3d> vec_sky_list = new List <Vector3d>();
List <int> vec_int = new List <int>();
for (int i = 0; i < meshObstructed.Vertices.Count; i++)
{
Vector3d testvec = meshObstructed.Vertices[i] - sp;
if (testvec.Z >= 0.0)
{
vec_sky_list.Add(testvec);
vec_int.Add(i);
}
}
Color[] colors = new Color[meshObstructed.Vertices.Count];
for (int i = 0; i < meshObstructed.Vertices.Count; i++)
{
colors[i] = Color.FromArgb(100, 255, 255, 255); //alpha not working
}
meshObstructed.VertexColors.SetColors(colors);
Vector3d[] vec_sky = vec_sky_list.ToArray();
bool[] shadow = new bool[vec_sky_list.Count];
if (context.Count > 0)
{
CShadow.CalcShadowMT(sp, new Vector3d(0, 0, 1), 0.001, vec_sky, context.ToArray(), ref shadow, paropts);
}
int j = 0;
foreach (int i in vec_int)
{
Color c = new Color();
if (shadow[j])
{
// Custom material, DisplayMaterial (rhinostyle) rendering material. and make in override DrawViewportMesh
c = Color.FromArgb(100, 0, 0, 0); //alpha not working
meshObstructed.VertexColors.SetColor(i, c);
_vectorsObstructed.Add(i);
}
j++;
}
}
else if (drawcumskymatrix)
{
// https://www.sciencedirect.com/science/article/pii/S0038092X04001161
// http://alexandria.tue.nl/openaccess/635611/p1153final.pdf
// Solarmodel.dll needs new function to compute cumulative sky view matrix (requires obstruction check from drawviewfactors
// 1. calc perez diffuse for each hour. use that value (hor, circum, dome) and assign it to each mesh face
// 2. DNI is computed directly onto SP
// 3. visualize colored dome for diff only.
// 4. add text to sensorpoint, stating annual irradiation (DNI plus diff)
//
// cumskymatrix seperate component!! coz it can be re-used for several sensor points
// matrix inversion as in robinson stone to compute irradiation on all sensor points with refl.?
//
// needs a separate component that uses cumskymatrix on a number of SPs and visualizes that analysis surface.
//... or use this component, output the sensorpoints, give it to a surface and make surface evaluate with the points, and recolor that surface
if (dni.Count == 8760 && dhi.Count == 8760) // only continue, if solar irradiance time series are provided
{
//Rhino.RhinoApp.WriteLine("Leggo!");
//Context.cWeatherdata weather;
//weather.DHI = dhi;
//weather.DNI = dni;
//weather.Snow = new List<double>();
//double[] beta = new double[1] { beta_in };
//double[] psi = new double[1] { psi_in };
//Sensorpoints.p3d[] coord = new Sensorpoints.p3d[1]; //dummy variables. will not be used in this simplified simulation
//coord[0].X = 0;
//coord[0].Y = 0;
//coord[0].Z = 0;
//Sensorpoints.v3d[] normal = new Sensorpoints.v3d[1]; //dummy variables. will not be used in this simplified simulation
//normal[0].X = 0;
//normal[0].Y = 1;
//normal[0].Z = 0;
//double[] albedo = new double[8760];
//for (int t = 0; t < 8760; t++)
//{
// albedo[t] = albedo1;
//}
//Console.WriteLine("Calculating irradiation...");
//Sensorpoints p = new Sensorpoints(beta, psi, coord, normal, reclvl);
//p.SetSimpleSkyMT(beta, paropts);
//p.SetSimpleGroundReflectionMT(beta, albedo, weather, sunvectors.ToArray(), paropts);
//p.CalcIrradiationMT(weather, sunvectors.ToArray(), paropts);
// hold on... i need a new function in SolarModel for CumSkyMatrix
}
else
{
Rhino.RhinoApp.WriteLine("No data for Direct Normal Irradiance and Diffuse Horizontal Irradiance provided... Please provide 8760 time series for each.");
}
}
if (drawviewfactors || drawcumskymatrix)
{
//_colouredMesh.Add(meshObstructed);
_viewFactors = meshObstructed;
}
//////////////////////////////////////////////////////////////////////////////////////////
/// Solar Vectors
List <Sphere> spheres = new List <Sphere>();
double fontsize = vec_sp_len / 50.0;
List <SunVector> sunvectors_list;
SunVector.Create8760SunVectors(out sunvectors_list, longitude, latitude, year);
int count = 0;
if (draw_solarvec)
{
foreach (int h in hoy)
{
Vector3d vec = new Vector3d(sunvectors_list[h].udtCoordXYZ.x, sunvectors_list[h].udtCoordXYZ.y, sunvectors_list[h].udtCoordXYZ.z);
vec = Vector3d.Multiply(vec_sp_len, vec);
Point3d solarpoint = new Point3d(Point3d.Add(sp, vec));
Line ln = new Line(sp, solarpoint);
ln.Flip();
_solar_vectors.Add(ln);
if (sunvectors_list[h].udtCoordXYZ.z < 0)
{
_night_time.Add(true);
}
else
{
_night_time.Add(false);
}
int year_now = sunvectors_list[h].udtTime.iYear;
int month_now = sunvectors_list[h].udtTime.iMonth;
int day_now = sunvectors_list[h].udtTime.iDay;
double hour_now = sunvectors_list[h].udtTime.dHours;
string hour_now2 = Convert.ToString(hour_now);
if (hour_now < 10)
{
hour_now2 = "0" + Convert.ToString(hour_now);
}
string strval = Convert.ToString(year_now) + "/ " + Convert.ToString(month_now) + "/ " + Convert.ToString(day_now) + "/ " + hour_now2 + ":00";
Plane pl = new Plane(ln.From, new Vector3d(-1, 0, 0));
//Plane pl = new Plane(ln.From, vec);
var te = Rhino.RhinoDoc.ActiveDoc.Objects.AddText(strval, pl, fontsize, "Baskerville", false, false);
Rhino.DocObjects.TextObject txt = Rhino.RhinoDoc.ActiveDoc.Objects.Find(te) as Rhino.DocObjects.TextObject;
_txt.Add(new List <Curve>());
if (txt != null)
{
var tt = txt.Geometry as Rhino.Geometry.TextEntity;
Curve[] A = tt.Explode();
foreach (Curve crv in A)
{
_txt[count].Add(crv);
}
}
count++;
Rhino.RhinoDoc.ActiveDoc.Objects.Delete(te, true);
Sphere sph = new Sphere(ln.From, vec_sp_len / 30.0);
spheres.Add(sph);
}
}
//////////////////////////////////////////////////////////////////////////////////////////
/// SUN PATH
/// !!! wierd sun paths at extreme longitudes -> time shift... +/- UCT
// draw solar paths: curves that connect each month, but for the same hour
if (draw_sunpath)
{
for (int hod = 0; hod < 24; hod++)
{
List <Point3d> pts = new List <Point3d>();
for (int d = 0; d < 365; d++)
{
int h = hod + 24 * d;
Vector3d vec = new Vector3d(sunvectors_list[h].udtCoordXYZ.x, sunvectors_list[h].udtCoordXYZ.y, sunvectors_list[h].udtCoordXYZ.z);
vec = Vector3d.Multiply(vec_sp_len, vec);
if (vec.Z > 0)
{
Point3d solarpoint = new Point3d(Point3d.Add(sp, vec));
pts.Add(solarpoint);
}
}
if (pts.Count > 0)
{
PolylineCurve crv = new PolylineCurve(pts);
_sun_paths.Add(crv);
}
}
// draw solar paths; curves that connects each hour, but for the same month
int interv = 365 / 12;
for (int m = 0; m < 12; m++)
{
List <Point3d> pts = new List <Point3d>();
for (int hod = 0; hod < 24; hod++)
{
int h = hod + ((m * interv + interv / 2) * 24);
Vector3d vec = new Vector3d(sunvectors_list[h].udtCoordXYZ.x, sunvectors_list[h].udtCoordXYZ.y, sunvectors_list[h].udtCoordXYZ.z);
vec = Vector3d.Multiply(vec_sp_len, vec);
if (vec.Z > 0)
{
Point3d solarpoint = new Point3d(Point3d.Add(sp, vec));
pts.Add(solarpoint);
}
}
if (pts.Count > 0)
{
PolylineCurve crv = new PolylineCurve(pts);
_sun_paths.Add(crv);
}
}
}
//////////////////////////////////////////////////////////////////////////////////////////
/// OUTPUT
DA.SetData(0, _viewFactors); // this mesh needs to be colored according to view factor or cumulative sky matrix
DA.SetDataList(1, _solar_vectors);
DA.SetDataList(2, _sun_paths);
DA.SetDataList(3, spheres);
}
public override bool Contains(Point3d pt)
{
foreach (Brep[] borderWalls in borderWallsArray)
{
foreach (Brep brep in borderWalls)
{
if (pt.DistanceTo(brep.ClosestPoint(pt)) < Constants.AbsoluteTolerance)
{
return false;
}
}
}
return true;
}
/*
* Gets the wrapped point that is closest to the relativePoint.
*/
public override Point3d WrapPoint(Point3d relativePoint, Point3d point)
{
Point3d wrappedPoint = point;
double minDistance = Double.MaxValue;
for (double x = -Width; x <= Width; x += Width)
{
for (double y = -Height; y <= Height; y += Height)
{
Point3d potentialPoint = new Point3d(point.X + x, point.Y + y, point.Z);
double distance = relativePoint.DistanceTo(potentialPoint);
if (distance < minDistance)
{
minDistance = distance;
wrappedPoint = potentialPoint;
}
}
}
return wrappedPoint;
}
public override void OnSkeletonFrameReady(
object sender, SkeletonFrameReadyEventArgs e
)
{
Point3d pt = new Point3d();
if (!Finished)
{
using (SkeletonFrame s = e.OpenSkeletonFrame())
{
if (s != null)
{
Skeleton[] skels = new Skeleton[s.SkeletonArrayLength];
s.CopySkeletonDataTo(skels);
foreach (Skeleton data in skels)
{
if (
data.TrackingState == SkeletonTrackingState.Tracked
)
{
leftHip =
PointFromVector(
data.Joints[JointType.HipLeft].Position, false
);
leftHand =
PointFromVector(
data.Joints[JointType.HandLeft].Position, false
);
Point3d rightHand =
PointFromVector(
data.Joints[JointType.HandRight].Position, false
);
if (
leftHand.DistanceTo(Point3d.Origin) > 0 &&
rightHand.DistanceTo(Point3d.Origin) > 0 &&
leftHand.DistanceTo(rightHand) < 0.03)
{
// Hands are less than 3cm from each other
_drawing = false;
_resizing = false;
_isRotate = false;
_changeaxis = false;
_resizebool = 0;
Finished = true;
}
else
{
// Hands are within 10cm of each other vertically
// and both hands are above the waist, so we resize
// the profile radius
_resizing = (leftHand.Z > leftHip.Z &&
rightHand.Z > leftHip.Z &&
Math.Abs(leftHand.Z - rightHand.Z) < 0.5);
_changeaxis = (leftHand.Z > leftHip.Z &&
rightHand.Z > leftHip.Z &&
Math.Abs(leftHand.Z - rightHand.Z) < 0.5);
// If the left hand is below the waist, we draw
_isRotate = (leftHand.Z < leftHip.Z);
_drawing = false;
}
//_resizing = true;
if (ct == 0)
{
pt = rightHand;
ct = 1;
}
if (_resizing)
{
// If resizing, set some data to help draw
// a sphere where we're resizing
Vector3d vec = (leftHand - rightHand) / 2;
_resizeLocation = pt + vec;
_profSide = vec.Length / (Math.Sqrt(3));
vRot = rightHand.GetVectorTo(leftHand); //new Point3d(-3, 4, 0).GetVectorTo(new Point3d(-3, -4, 0)); //rightHand.GetVectorTo(leftHand);
}
// if (_changeaxis)
// {
// vRot = rightHand.GetVectorTo(leftHand);
// }
//if (_isRotate)
// {
// cube.WorldDraw(draw);
// }
if (_drawing)
{
// If we have at least one prior vertex...
if (_vertices.Count > 0)
{
// ... check whether we're a certain distance
// away from the last one before adding it (this
// smooths off the jitters of adding every point)
Point3d lastVert =
_vertices[_vertices.Count - 1];
if (
lastVert.DistanceTo(rightHand) > _profSide * 4
)
{
// Add the new vertex to our list
_vertices.Add(rightHand);
}
}
else
{
// Add the first vertex to our list
_vertices.Add(rightHand);
}
}
break;
}
}
}
}
}
}
public override Point3d WrapPoint(Point3d relativePoint, Point3d point)
{
Point3d wrappedPoint = point;
bool wrapped;
wrappedPoint = WrapPoint(point, out wrapped);
if (wrapped)
{
if (relativePoint.DistanceTo(wrappedPoint) < relativePoint.DistanceTo(point))
{
return wrappedPoint;
}
else
{
return point;
}
}
double minDistance = Double.MaxValue;
for (double x = -Width; x <= Width; x += Width)
{
for (double y = -Height; y <= Height; y += Height)
{
for (double z = -Depth; z <= Depth; z += Depth)
{
Point3d potentialPoint = new Point3d(point.X + x, point.Y + y, point.Z + z);
double distance = relativePoint.DistanceTo(potentialPoint);
if (distance < minDistance)
{
minDistance = distance;
wrappedPoint = potentialPoint;
}
}
}
}
return wrappedPoint;
}
// Are two points within a certain distance?
private static bool CloseTo(
Point3d first, Point3d second, double dist = 0.1
)
{
return first.DistanceTo(second) < dist;
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
bool ignoreSelfIntersecting = false; // set to True if you don't want to output curves where width < 0, which creates a self-intersecting curve
int inCt = 0; // count the number of required parameters that are receiving data
Point3d PtA = new Point3d();
Point3d PtB = new Point3d();
Plane refPlane = new Plane();
double W = 0.0;
double width = double.NaN;
double length = 0.0;
double height = 0.0;
double angle = 0.0;
double m = 0.0;
List <double> multiple_m = new List <double>();
bool flip_H = false; // if height is negative, this flag will be set
bool flip_A = false; // if angle is negative, this flag will be set
double E = 0.0;
double I = 0.0;
if (!DA.GetData(0, ref PtA))
{
return;
}
if (!DA.GetData(2, ref refPlane))
{
refPlane = Plane.WorldXY;
refPlane.Origin = PtA;
}
// Points to be in refPlane
if (Math.Round(refPlane.DistanceTo(PtA), Defined.ROUNDTO) != 0)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Point A is not on the base plane");
return;
}
if (DA.GetData(1, ref PtB))
{
// Points to be in refPlane
if (Math.Round(refPlane.DistanceTo(PtB), Defined.ROUNDTO) != 0)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Point B is not on the base plane");
return;
}
Line AtoB = new Line(PtA, PtB);
if (AtoB.Length != 0 & !AtoB.Direction.IsPerpendicularTo(refPlane.YAxis))
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "The line between PtA and PtB is not perpendicular to the Y-axis of the specified plane");
return;
}
inCt++;
if (DA.GetData(4, ref W))
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Warning, "Width W will override the distance between PtA and PtB. If you do not want this to happen, disconnect PtB or Width.");
}
W = PtA.DistanceTo(PtB); // get the width (distance) between PtA and PtB
Point3d refPtB;
if (refPlane.RemapToPlaneSpace(PtB, out refPtB))
{
if (refPtB.X < 0)
{
W = -W; // check if PtB is to the left of PtA...if so, width is negative
}
}
width = W;
}
if (DA.GetData(3, ref length))
{
inCt++;
}
if (DA.GetData(4, ref W))
{
inCt++;
}
if (DA.GetData(5, ref height))
{
inCt++;
}
if (DA.GetData(6, ref angle))
{
inCt++;
}
if (inCt > 2)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Warning, "More parameters set than are required (out of length, width, height, angle). Only using the first two valid ones.");
}
if (DA.GetData(3, ref length))
{
if (length <= 0.0)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Length cannot be negative or zero");
return;
}
if (DA.GetData(4, ref W))
{
if (W > length)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Width is greater than length");
return;
}
if (W == length)
{
height = 0;
m = 0;
angle = 0;
width = W;
}
else
{
m = SolveMFromLengthWidth(length, W);
height = Cal_H(length, m); // L * Sqrt(m) / K(m)
angle = Cal_A(m); // Acos(1 - 2 * m)
width = W;
}
}
else if (W != double.NaN)
{
if (W > length)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Width is greater than length");
return;
}
if (W == length)
{
height = 0;
m = 0;
angle = 0;
}
else
{
m = SolveMFromLengthWidth(length, W);
height = Cal_H(length, m); // L * Sqrt(m) / K(m)
angle = Cal_A(m); // Acos(1 - 2 * m)
}
width = W;
}
else if (DA.GetData(5, ref height))
{
if (Math.Abs(height / length) > Defined.MAX_HL_RATIO)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Height not possible with given length");
return;
}
if (height < 0)
{
height = -height; // if height is negative, set it to positive (for the calculations) but flip the reference plane about its x-axis
refPlane.Transform(Transform.Mirror(new Plane(refPlane.Origin, refPlane.XAxis, refPlane.ZAxis)));
flip_A = true;
flip_H = true;
}
if (height == 0)
{
width = length;
angle = 0;
}
else
{
multiple_m = SolveMFromLengthHeight(length, height); // note that it's possible for two values of m to be found if height is close to max height
if (multiple_m.Count == 1)
{
m = multiple_m.ElementAt(0);
width = Cal_W(length, m); // L * (2 * E(m) / K(m) - 1)
angle = Cal_A(m); // Acos(1 - 2 * m)
}
}
}
else if (DA.GetData(6, ref angle))
{
if (angle < 0)
{
angle = -angle; // if angle is negative, set it to positive (for the calculations) but flip the reference plane about its x-axis
refPlane.Transform(Transform.Mirror(new Plane(refPlane.Origin, refPlane.XAxis, refPlane.ZAxis)));
flip_A = true;
flip_H = true;
}
m = Cal_M(angle); // (1 - Cos(a)) / 2
if (angle == 0)
{
width = length;
height = 0;
}
else
{
width = Cal_W(length, m); // L * (2 * E(m) / K(m) - 1)
height = Cal_H(length, m); // L * Sqrt(m) / K(m)
}
}
else
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Need to specify one more parameter in addition to length");
return;
}
}
else if (DA.GetData(4, ref W))
{
if (DA.GetData(5, ref height))
{
if (height < 0)
{
height = -height; // if height is negative, set it to positive (for the calculations) but flip the reference plane about its x-axis
refPlane.Transform(Transform.Mirror(new Plane(refPlane.Origin, refPlane.XAxis, refPlane.ZAxis)));
flip_A = true;
flip_H = true;
}
if (height == 0)
{
length = W;
angle = 0;
}
else
{
m = SolveMFromWidthHeight(W, height);
length = Cal_L(height, m); // h * K(m) / Sqrt(m)
angle = Cal_A(m); // Acos(1 - 2 * m)
}
}
else if (DA.GetData(6, ref angle))
{
if (W == 0)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Curve not possible with width = 0 and an angle as inputs");
return;
}
if (angle < 0)
{
angle = -angle; // if angle is negative, set it to positive (for the calculations) but flip the reference plane about its x-axis
refPlane.Transform(Transform.Mirror(new Plane(refPlane.Origin, refPlane.XAxis, refPlane.ZAxis)));
flip_A = true;
flip_H = true;
}
m = Cal_M(angle); // (1 - Cos(a)) / 2
if (angle == 0)
{
length = W;
height = 0;
}
else
{
length = W / (2 * EllipticE(m) / EllipticK(m) - 1);
if (length < 0)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Curve not possible at specified width and angle (calculated length is negative)");
return;
}
height = Cal_H(length, m); // L * Sqrt(m) / K(m)
}
}
else
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Need to specify one more parameter in addition to width (Wid)");
return;
}
width = W;
}
else if (width != double.NaN)
{
if (DA.GetData(5, ref height))
{
if (height < 0)
{
height = -height; // if height is negative, set it to positive (for the calculations) but flip the reference plane about its x-axis
refPlane.Transform(Transform.Mirror(new Plane(refPlane.Origin, refPlane.XAxis, refPlane.ZAxis)));
flip_A = true;
flip_H = true;
}
if (height == 0)
{
length = width;
angle = 0;
}
else
{
m = SolveMFromWidthHeight(width, height);
length = Cal_L(height, m); // h * K(m) / Sqrt(m)
angle = Cal_A(m); // Acos(1 - 2 * m)
}
}
else if (DA.GetData(6, ref angle))
{
if (width == 0)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Curve not possible with width = 0 and an angle as inputs");
return;
}
if (angle < 0)
{
angle = -angle; // if angle is negative, set it to positive (for the calculations) but flip the reference plane about its x-axis
refPlane.Transform(Transform.Mirror(new Plane(refPlane.Origin, refPlane.XAxis, refPlane.ZAxis)));
flip_A = true;
flip_H = true;
}
m = Cal_M(angle); // (1 - Cos(a)) / 2
if (angle == 0)
{
length = width;
height = 0;
}
else
{
length = width / (2 * EllipticE(m) / EllipticK(m) - 1);
if (length < 0)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Curve not possible at specified width and angle (calculated length is negative)");
return;
}
height = Cal_H(length, m); // L * Sqrt(m) / K(m)
}
}
else
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Need to specify one more parameter in addition to PtA and PtB");
return;
}
}
else if (DA.GetData(5, ref height))
{
if (DA.GetData(6, ref angle))
{
if (height < 0)
{
height = -height; // if height is negative, set it to positive (for the calculations) but flip the reference plane about its x-axis
refPlane.Transform(Transform.Mirror(new Plane(refPlane.Origin, refPlane.XAxis, refPlane.ZAxis)));
flip_H = true;
flip_A = true;
}
if (height == 0)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Height can't = 0 if only height and angle are specified");
return;
}
else
{
if (angle < 0)
{
angle = -angle; // if angle is negative, set it to positive (for the calculations) but flip the reference plane about its x-axis
refPlane.Transform(Transform.Mirror(new Plane(refPlane.Origin, refPlane.XAxis, refPlane.ZAxis)));
flip_A = !flip_A;
flip_H = !flip_H;
}
m = Cal_M(angle); // (1 - Cos(a)) / 2
if (angle == 0)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Angle can't = 0 if only height and angle are specified");
return;
}
else
{
length = Cal_L(height, m); // h * K(m) / Sqrt(m)
width = Cal_W(length, m); // L * (2 * E(m) / K(m) - 1)
}
}
}
else
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Need to specify one more parameter in addition to height");
return;
}
}
else if (DA.GetData(6, ref angle))
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Need to specify one more parameter in addition to angle");
return;
}
else
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Need to specify two of the four parameters: length, width (or PtB), height, and angle");
return;
}
if (m > Defined.M_MAX)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Form of curve not solvable with current algorithm and given inputs");
return;
}
refPlane.Origin = refPlane.PointAt(width / (double)2, 0, 0); // adjust the origin of the reference plane so that the curve is centered about the y-axis (start of the curve is at x = -width/2)
DA.GetData(7, ref E);
if (multiple_m.Count > 1)
{
DataTree <Point3d> multi_pts = new DataTree <Point3d>();
List <Curve> multi_crv = new List <Curve>();
List <Point3d> tmp_pts = new List <Point3d>();
List <double> multi_W = new List <double>(), multi_A = new List <double>(), multi_F = new List <double>();
int j = 0; // used for creating a new branch (GH_Path) for storing pts which is itself a list of points
foreach (double m_val in multiple_m)
{
width = Cal_W(length, m_val); // length * (2 * EllipticE(m_val) / EllipticK(m_val) - 1)
if (width < 0 & ignoreSelfIntersecting)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Warning, "One curve is self-intersecting. To enable these, set ignoreSelfIntersecting to False");
continue;
}
if (m_val >= Defined.M_SKETCHY)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Remark, "Accuracy of the curve whose width = " + Math.Round(width, 4) + " is not guaranteed");
}
angle = Cal_A(m_val); // Math.Asin(2 * m_val - 1)
refPlane.Origin = refPlane.PointAt(width / (double)2, 0, 0); // adjust the origin of the reference plane so that the curve is centered about the y-axis (start of the curve is at x = -width/2)
tmp_pts = FindBendForm(length, width, m_val, angle, refPlane);
multi_pts.AddRange(tmp_pts, new GH_Path(j));
multi_crv.Add(MakeCurve(tmp_pts, angle, refPlane));
multi_W.Add(width);
if (flip_A)
{
angle = -angle;
}
multi_A.Add(angle);
E = E * Math.Pow(10, 9); // Young's modulus input E is in GPa, so we convert to Pa here (= N/m^2)
multi_F.Add(Math.Pow(EllipticK(m_val), 2) * E * I / Math.Pow(length, 2)); // from reference {4} pg. 79
j += 1;
refPlane.Origin = PtA; // reset the reference plane origin to PtA for the next m_val
}
// assign the outputs
DA.SetDataTree(0, multi_pts);
DA.SetDataList(1, multi_crv);
DA.SetData(2, length);
DA.SetDataList(3, multi_W);
if (flip_H)
{
height = -height;
}
DA.SetData(4, height);
DA.SetDataList(5, multi_A);
DA.SetDataList(6, multi_F);
}
else
{
if (m >= Defined.M_SKETCHY)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Remark, "Accuracy of the curve at these parameters is not guaranteed");
}
if (width < 0 & ignoreSelfIntersecting)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Curve is self-intersecting. To enable these, set ignoreSelfIntersecting to False");
return;
}
DataTree <Point3d> multi_pts = new DataTree <Point3d>();
List <Point3d> pts = FindBendForm(length, width, m, angle, refPlane);
multi_pts.AddRange(pts, new GH_Path(0));
DA.SetDataTree(0, multi_pts);
List <Curve> multi_crv = new List <Curve>();
multi_crv.Add(MakeCurve(pts, angle, refPlane));
DA.SetDataList(1, multi_crv);
DA.SetData(2, length);
List <double> multi_W = new List <double>()
{
width
};
DA.SetDataList(3, multi_W);
if (flip_H)
{
height = -height;
}
DA.SetData(4, height);
if (flip_A)
{
angle = -angle;
}
List <double> multi_A = new List <double>()
{
angle
};
DA.SetDataList(5, multi_A);
E = E * Math.Pow(10, 9); // Young's modulus input E is in GPa, so we convert to Pa here (= N/m^2)
double F = Math.Pow(EllipticK(m), 2) * E * I / Math.Pow(length, 2); // from reference {4} pg. 79. Note: the critical buckling (that makes the rod/wire start to bend) can be found at height=0 (width=length)
List <double> multi_F = new List <double>()
{
F
};
DA.SetDataList(6, multi_F);
}
}
/// <summary>
/// Trims strut with known intersection point, returning the trimmed LineCurve which is inside the space.
/// </summary>
public LineCurve AddTrimmedStrut(LatticeNode node1, LatticeNode node2, Point3d intersectionPt, double minLength, double maxLength)
{
LineCurve testStrut = new LineCurve(new Line(node1.Point3d, node2.Point3d), 0, 1); // set line, with curve parameter domain [0,1]
if (node1.IsInside)
{
double trimmedLength = intersectionPt.DistanceTo(node1.Point3d);
if (trimmedLength > minLength && trimmedLength < maxLength)
{
Nodes.Add(new LatticeNode(intersectionPt, LatticeNodeState.Boundary));
return new LineCurve(node1.Point3d, intersectionPt);
}
else
{
node1.State = LatticeNodeState.Boundary;
}
}
if (node2.IsInside)
{
double trimmedLength = intersectionPt.DistanceTo(node2.Point3d);
if (trimmedLength > minLength && trimmedLength < maxLength)
{
Nodes.Add(new LatticeNode(intersectionPt, LatticeNodeState.Boundary));
return new LineCurve(node2.Point3d, intersectionPt);
}
else
{
node2.State = LatticeNodeState.Boundary;
}
}
return null;
}
private void ChaseEnemy()
{
if (dead)
{
return;
}
switch (m_chaseState)
{
case ChaseState.IDLE:
{
UpdateActive = false;
return;
}
case ChaseState.CHASING_ENEMY:
{
Creature target = m_targetID == 0 ? null : (Creature)World.Instance.GetEntity(m_targetID);
if (target == null)
{
StartBackToHome();
return;
}
// the distance to target
float distance = (float)Position.DistanceTo(target.Position);
if (distance > LongDistance)
{
// too far away, I cannot catch up my target, so I give up
StartBackToHome();
return;
}
if (m_targetPos.DistanceTo(target.Position) > DistanceEpsilon)
{
// the target is moving
// target deviate path which I calculate last time, so I must re-calculate
if (!FindPath(target.Position, m_routeSteps))
{
StartBackToHome();
return;
}
m_targetPos = target.Position;
SendMove(MoveState.BEGIN, Position, m_targetID);
return;
}
if (distance < DistanceEpsilon)
{
// reach the destination
m_routeSteps.Clear();
}
if (m_routeSteps.Count == 0)
{
this.Position = target.Position;
SendMove(MoveState.END, target.Position, m_targetID);
m_chaseState = ChaseState.ATTACKING;
}
else
{
Point3d pos = m_routeSteps.First.Value;
m_routeSteps.RemoveFirst();
SendMove(MoveState.STEP, pos, m_targetID);
}
}
return;
case ChaseState.BACK_TO_HOME:
{
if (m_routeSteps.Count == 0)
{
m_chaseState = ChaseState.IDLE;
Position = V3ToPoint3d(DefaultData.pos);
SendMove(MoveState.END, Position);
}
else
{
Point3d pos = m_routeSteps.First.Value;
m_routeSteps.RemoveFirst();
SendMove(MoveState.STEP, pos);
}
}
return;
case ChaseState.ATTACKING:
{
Creature target = m_targetID == 0 ? null : (Creature)World.Instance.GetEntity(m_targetID);
if (target == null || target.currentHP == 0)
{
StartBackToHome();
return;
}
if (Position.DistanceTo(target.Position) < DistanceEpsilon)
{
OnAttack(target);
target.OnHit(this, 1);
}
else
{
m_chaseState = ChaseState.CHASING_ENEMY;
if (!FindPath(target.Position, m_routeSteps))
{
StartBackToHome();
return;
}
m_targetPos = target.Position;
SendMove(MoveState.BEGIN, Position, m_targetID);
}
}
return;
}
}
public override bool shoot(Point3d Start, Vector3d Dir, int Random, out double u, out double v, out int Srf_ID, out List<Point3d> X_PT, out List<double> t, out List<int> Code)
{
S_Origin = new Point3d(Start);
Srf_ID = 0;
while (true)
{
Point3d[] P = Rhino.Geometry.Intersect.Intersection.RayShoot(new Ray3d(S_Origin, Dir), BrepList, 1);
if (P == null) { X_PT = new List<Point3d> { default(Point3d) }; u = 0; v = 0; t = new List<double> { 0 }; Code = new List<int> { 0 }; return false; }
Voxels.PointIsInVoxel(P[0], ref XVoxel, ref YVoxel, ref ZVoxel);
try
{
SurfaceIndex = Voxels.VoxelList(XVoxel, YVoxel, ZVoxel);
}
catch (Exception)
{
//Rare floating point error on some computers... abandon the ray and start the next...
//Explanation: This would never happen on my IBM T43P laptop, but happened
//consistently millions of function calls into the calculation on my
//ASUS K8N-DL based desktop computer. I believe it has something to do with some quirk of that system.
//This try...catch statement is here in case this ever manifests on any user's computer.
//It is rare enough that this should not affect the accuracy of the calculation.
t = new List<double> { 0.0f };
X_PT = new List<Point3d> { default(Point3d) };
u = 0;
v = 0;
Code = new List<int> { 0 };
return false;
}
Point3d CP;
Vector3d N;
ComponentIndex CI;
double MD = 0.0001;
foreach (int index in SurfaceIndex)
{
if (BrepList[index].ClosestPoint(P[0], out CP, out CI, out u, out v, MD, out N) && (CI.ComponentIndexType == ComponentIndexType.BrepFace))
{
if ((Math.Abs(P[0].X - CP.X) < 0.0001) && (Math.Abs(P[0].Y - CP.Y) < 0.0001) && (Math.Abs(P[0].Z - CP.Z) < 0.0001))
{
Srf_ID = index;
X_PT = new List<Point3d> {P[0]};
t = new List<double> {(double)(S_Origin.DistanceTo(X_PT[0]))};
Code = new List<int>() { 0 };
return true;
}
}
}
S_Origin = new Point3d(P[0]);
}
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
// Declate variables
Curve curve = null;
string name = "";
MaterialWrapper material = null;
// Reference the inputs
DA.GetData(0, ref curve);
DA.GetData(1, ref name);
DA.GetData(2, ref material);
// Throw error message if curve cannot be converted to a polyline
if (!curve.IsPolyline())
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Input must be polyine, curves are not allowed.");
return;
}
// Convert curve to polyline
Polyline polyline = null;
curve.TryGetPolyline(out polyline);
// Fill a list with the polyline's point coordinates
List <double> array = new List <double>();
for (int i = 0; i < polyline.Count; i++)
{
// Get point values
var px = polyline.X[i];
var py = polyline.Y[i];
var pz = polyline.Z[i];
// Add point values to array
array.Add(Math.Round(px, 3) * -1);
array.Add(Math.Round(pz, 3));
array.Add(Math.Round(py, 3));
}
//Build the position object
dynamic position = new ExpandoObject();
position.itemSize = 3;
position.type = "Float32Array";
position.array = array;
position.normalized = false;
// Build the attribute object
dynamic attributes = new ExpandoObject();
attributes.position = position;
// If LineDashedMaterial is used, add the lineDistance attribute
if (material != null && string.Equals(material.Material.type, "LineDashedMaterial"))
{
// Create list to populate with lineDistances
List <double> lineDistances = new List <double>();
Point3d previousPt = new Point3d();
// Loop over vertices and measure the distance from start to each vertex
for (int i = 0; i < polyline.Count; i++)
{
// Get point values
var px = polyline.X[i];
var py = polyline.Y[i];
var pz = polyline.Z[i];
// Distance to previous point
Point3d pt = new Point3d(px, py, pz);
if (i == 0)
{
lineDistances.Add(0);
}
else
{
lineDistances.Add(pt.DistanceTo(previousPt) + lineDistances[i - 1]);
}
previousPt = pt;
}
// Build the lineDistance object
dynamic lineDistance = new ExpandoObject();
lineDistance.type = "Float32Array";
lineDistance.array = lineDistances;
lineDistance.count = polyline.Count;
lineDistance.itemSize = 1;
// Add the lineDistance object to the attributes object
attributes.lineDistance = lineDistance;
}
// Build the data object
dynamic data = new ExpandoObject();
data.attributes = attributes;
// Build the geometry object
dynamic geometry = new ExpandoObject();
geometry.uuid = Guid.NewGuid();
geometry.type = "BufferGeometry";
geometry.data = data;
// Build the child object
dynamic child = new ExpandoObject();
child.uuid = Guid.NewGuid();
if (name.Length > 0)
{
child.name = name;
}
child.type = "Line";
child.geometry = geometry.uuid;
if (material != null)
{
child.material = material.Material.uuid;
}
child.matrix = new List <double> {
1, 0, 0, 0, 0, 1, 0, 0, 0, 0, 1, 0, 0, 0, 0, 1
};
// Fill the children list
List <dynamic> children = new List <dynamic>();
children.Add(child);
// Wrap the objects in a wrapper object
GeometryWrapper wrapper = null;
if (material != null)
{
wrapper = new GeometryWrapper(geometry, child, material.Material);
}
else
{
wrapper = new GeometryWrapper(geometry, child, null);
}
// Serialize wrapper object
string JSON = JsonConvert.SerializeObject(wrapper);
// Set outputs
DA.SetData(0, JSON);
DA.SetData(1, wrapper);
}
public static Point3d GetClosestPoint(this Curve curve, Point3d point) => point.DistanceTo(curve.StartPoint) <= point.DistanceTo(curve.EndPoint) ? curve.StartPoint : curve.EndPoint;
/// <summary>
/// 微调湿接缝宽度--初次布板湿接缝递增或递减，现将其调匀
/// </summary>
private List<Point3d> AdjustSjfW(Point3d start, Point3d end, int segCount, List<double> adjustSjfW)
{
double seglength = start.DistanceTo(end) / segCount;
Vector3d vect = start.GetVectorTo(end).GetNormal();
List<Point3d> res = new List<Point3d>();
double dist = 0;
for (int i = 1; i < segCount; i++)
{
dist += (seglength + adjustSjfW[i - 1]);
res.Add(start + vect.MultiplyBy(dist));
}
return res;
}
public static void Use(Point3d pMin, Point3d pMax, Point3d pCenter, double dFactor)
{
Document acDoc = Application.DocumentManager.MdiActiveDocument;
Database acCurDB = acDoc.Database;
int nCurVport = System.Convert.ToInt32(Application.GetSystemVariable("CVPORT"));
if (acCurDB.TileMode == true) //model space
{
if (pMin.Equals(new Point3d()) == true && pMax.Equals(new Point3d()) == true)
{
pMin = acCurDB.Extmin; //Get the extends of model space
pMax = acCurDB.Extmax;
}
}
else
{
if (nCurVport == 1) //paper space
{
if (pMin.Equals(new Point3d()) == true && pMax.Equals(new Point3d()) == true)
{
pMin = acCurDB.Pextmin; //Get the extends of paper space
pMax = acCurDB.Pextmax;
}
}
else
{
if (pMin.Equals(new Point3d()) == true && pMax.Equals(new Point3d()) == true)
{
pMin = acCurDB.Extmin; //Get the extends of model space
pMax = acCurDB.Extmax;
}
}
}
using (Transaction acTrans = acCurDB.TransactionManager.StartTransaction())
{
using (ViewTableRecord acView = acDoc.Editor.GetCurrentView())
{
Extents3d eExtents;
Matrix3d matWCStoDCS;
matWCStoDCS = Matrix3d.PlaneToWorld(acView.ViewDirection);
matWCStoDCS = Matrix3d.Displacement(acView.Target - Point3d.Origin) * matWCStoDCS;
matWCStoDCS = Matrix3d.Rotation(-acView.ViewTwist, acView.ViewDirection, acView.Target) * matWCStoDCS;
if (pCenter.DistanceTo(Point3d.Origin) != 0)
{
pMin = new Point3d(pCenter.X - (acView.Width / 2), pCenter.Y - (acView.Height / 2), 0);
pMax = new Point3d((acView.Width / 2) + pCenter.X, (acView.Height / 2) + pCenter.Y, 0);
}
using (Line acLine = new Line(pMin, pMax))
{
eExtents = new Extents3d(acLine.Bounds.Value.MinPoint, acLine.Bounds.Value.MaxPoint);
}
double dViewRatio;
dViewRatio = (acView.Width / acView.Height);
matWCStoDCS = matWCStoDCS.Inverse();
eExtents.TransformBy(matWCStoDCS);
double dWidth;
double dHeight;
Point2d pNewCentPt;
if (pCenter.DistanceTo(Point3d.Origin) != 0)
{
dWidth = acView.Width;
dHeight = acView.Height;
if (dFactor == 0)
{
pCenter = pCenter.TransformBy(matWCStoDCS);
}
pNewCentPt = new Point2d(pCenter.X, pCenter.Y);
}
else
{
dWidth = eExtents.MaxPoint.X - eExtents.MinPoint.X;
dHeight = eExtents.MaxPoint.Y - eExtents.MinPoint.Y;
pNewCentPt = new Point2d((eExtents.MaxPoint.X + eExtents.MinPoint.X) * 0.5, (eExtents.MaxPoint.Y + eExtents.MinPoint.Y) * 0.5);
}
if (dWidth > (dHeight * dViewRatio))
{
dHeight = dWidth / dViewRatio;
}
if (dFactor != 0)
{
acView.Height = dHeight * dFactor;
acView.Width = dWidth * dFactor;
}
acView.CenterPoint = pNewCentPt;
acDoc.Editor.SetCurrentView(acView);
}
acTrans.Commit();
}
}
public double DistanceTo(Point3d testPoint, bool limitToFiniteSegment)
{
Point3d pp = ClosestPoint(testPoint, limitToFiniteSegment);
return(pp.DistanceTo(testPoint));
}
public static Polyline[] OffsetPolyline(Polyline c0, Polyline c1, double toolr = 10, bool notch = false)
{
if (toolr == 0)
{
return new Polyline[] { c0, c1 }
}
;
if (c0.Count == 2)
{
return new Polyline[] { c0, c1 }
}
;
Transform transform = OrientTo2D(c0);
Polyline ply0 = new Polyline(c0);
Polyline ply1 = new Polyline(c1);
bool closed = c0[0].DistanceToSquared(c0[c0.Count - 1]) < 0.001;
if (!closed)
{
ply0.Close();
ply1.Close();
}
ply0.Transform(transform);
ply1.Transform(transform);
Transform inverse; transform.TryGetInverse(out inverse);
Plane ply0Plane = ply0.plane();
Plane ply1Plane = ply1.plane();
Polyline pl0Offset = new Polyline();
Polyline pl1Offset = new Polyline();
string orient = (IsClockwiseClosedPolylineOnXYPlane(ply0)) ? "CounterClockwise" : "Clockwise";
if (ply0.IsValid && ply1.IsValid)
{
Point3d[] vrts = ply0.ToArray();
Point3d[] uvrts = ply1.ToArray();
Plane notPairingPlane;
Plane.FitPlaneToPoints(vrts, out notPairingPlane);
//int k = 1;
//int infeed = 1;
//Rhino.RhinoApp.WriteLine(k.ToString());
//ncc.Add("(start infeed no" + k.ToString() + ")");
for (int i = 0; i != vrts.Length - 1; i++) // iterate segments
{
Point3d p0 = vrts[i]; //#always
Point3d p0u = uvrts[i];
Point3d p2b = new Point3d();
Point3d p1b = new Point3d();
Point3d p1 = new Point3d();
Point3d p2 = new Point3d();
Point3d p1u = new Point3d();
if (i == 0)
{
p2b = vrts[vrts.Length - 3];
p1b = vrts[vrts.Length - 2];
p1 = vrts[i + 1];
p2 = vrts[i + 2];
p1u = uvrts[i + 1];
}
else if (i == 1)
{
p2b = vrts[vrts.Length - 2];
p1b = vrts[i - 1];
p1 = vrts[i + 1];
p2 = vrts[i + 2];
p1u = uvrts[i + 1];
}
else if (i == vrts.Length - 2)
{
p2b = vrts[i - 2];
p1b = vrts[i - 1];
p1 = vrts[0];
p2 = vrts[1];
p1u = uvrts[0];
}
else if (i == vrts.Length - 3)
{
p2b = vrts[i - 2];
p1b = vrts[i - 1];
p1 = vrts[i + 1];
p2 = vrts[0];
p1u = uvrts[i + 1];
}
else
{
p2b = vrts[i - 2];
p1b = vrts[i - 1];
p1 = vrts[i + 1];
p2 = vrts[i + 2];
p1u = uvrts[i + 1];
}
// ## DET TOOLPATH
Vector3d n1b = Rhino.Geometry.Vector3d.CrossProduct(p1b - p0, p0u - p0); //#Srf Normal (last)
Vector3d n0 = Rhino.Geometry.Vector3d.CrossProduct(p0 - p1, p0u - p0); //#Srf Normal (current)
Vector3d n1 = Rhino.Geometry.Vector3d.CrossProduct(p2 - p1, p1u - p1); //#Srf Normal (next)
n1b.Unitize();
n1b *= toolr * -1;
n0.Unitize();
n0 *= toolr;
n1.Unitize();
n1 *= toolr;
Plane pl0 = new Plane(p0, (n1b + n0) / 2); //# ext bisector plane last/current
Plane pl1 = new Plane(p1, ((n0 + n1) / 2)); //# ext bisector plane current/next
Line ln0 = new Line(p0 + (n0 * -1), p1 + (n0 * -1)); //# toolpath Line
double pm0;
double pm1;
Rhino.Geometry.Intersect.Intersection.LinePlane(ln0, pl0, out pm0);
Rhino.Geometry.Intersect.Intersection.LinePlane(ln0, pl1, out pm1);
Point3d pt0 = ln0.PointAt(pm0); //# intersection with Plane 0
Point3d pt1 = ln0.PointAt(pm1); //# intersection with Plane 1
Point3d pt6 = new Point3d();
bool boolN = false;
Vector3d n44 = p1u - p1;
n44.Unitize();
Point3d ptXX = pt1 + n44 * 45;
Line XXA = new Line(p1, p1u);
Point3d ptC = XXA.ClosestPoint(pt1, false);
double l0 = ptC.DistanceTo(pt1) - toolr; //# offset dist
Vector3d nnn = ptC - pt1;
nnn.Unitize();
Point3d pt3 = pt1 + nnn * l0;
Point3d pt4 = pt3 + (p1u - p1);
Line ln1 = new Line(pt3, pt4); //# cylinder axis
//## IDENTIFY INSIDE CORNERS
Vector3d r1l = p2b - p1b; //# last back
Vector3d r1n = p0 - p1b; //# last front
Vector3d al = p1b - p0; //# current back
Vector3d an = p1 - p0; //# current front
Vector3d bl = p0 - p1; //# next back
Vector3d bn = p2 - p1; //# next front
r1l.Unitize();
r1n.Unitize();
al.Unitize();
an.Unitize();
bl.Unitize();
bn.Unitize();
Vector3d cpr1 = Vector3d.CrossProduct(r1l, r1n); //# +- look 1 back
Vector3d cp0 = Vector3d.CrossProduct(al, an); //# +- look current
Vector3d cp1 = Vector3d.CrossProduct(bl, bn); //# +- look 1 ahead
if (orient == "Clockwise")
{
if (cpr1.Z < 0 && cp0.Z < 0 && cp1.Z > 0) //# --+
{
boolN = true;
}
else if (cpr1.Z < 0 && cp0.Z > 0 && cp1.Z > 0) //# -++
{
boolN = true;
}
else if (cpr1.Z > 0 && cp0.Z < 0 && cp1.Z > 0) //# +-+
{
boolN = true;
}
}
else if (orient == "CounterClockwise")
{
if (cp0.Z > 0) //# +-+
{
boolN = true;
}
}
Point3d[] pts = { pt0, pt1, pt1 + (p1u - p1), pt0 + (p0u - p0) };
//Vector3d nh0 = ((pts[3] - pts[0]) / infeed) * (k - 1);
//Vector3d nh1 = ((pts[2] - pts[1]) / infeed) * (k - 1);
Point3d p21 = pts[1]; //+ nh1; // infeed pts
Point3d p30 = pts[0]; //+ nh0;
int IPDtemp = 3; // division for sim mach
if (Math.Abs(pts[0].DistanceTo(pts[1])) <= Math.Abs(pts[3].DistanceTo(pts[2])) + 0.5 && Math.Abs(pts[0].DistanceTo(pts[1])) >= Math.Abs(pts[3].DistanceTo(pts[2])) - 0.5)
{
IPDtemp = 1; // simple cut
}
// List<Point3d> ptsl = IBOIS.Utilities.GeometryProcessing.DividePoints(pts[0], pts[1], IPDtemp);
// List<Point3d> ptsm = IBOIS.Utilities.GeometryProcessing.DividePoints(p30, p21, IPDtemp);
//List<Point3d> ptsu = IBOIS.Utilities.GeometryProcessing.DividePoints(pts[3], pts[2], IPDtemp);
// Rhino.RhinoDoc.ActiveDoc.Objects.AddPoint(pts[0]);
//Rhino.RhinoDoc.ActiveDoc.Objects.AddLine(new Line(p30,p21));
// Rhino.RhinoDoc.ActiveDoc.Objects.AddLine(new Line(pts[0], pts[1]));
// Rhino.RhinoDoc.ActiveDoc.Objects.AddLine(new Line(pts[3], pts[2]));
//Rhino.RhinoDoc.ActiveDoc.Objects.AddLine(new Line(pts[0], pts[3]));
double t;
Line line = new Line(pts[0], pts[3]);
Rhino.Geometry.Intersect.Intersection.LinePlane(line, ply0Plane, out t);
pl0Offset.Add(line.PointAt(t));
Rhino.Geometry.Intersect.Intersection.LinePlane(line, ply1Plane, out t);
pl1Offset.Add(line.PointAt(t));
}
}
//Rhino.RhinoDoc.ActiveDoc.Objects.AddPolyline(pl0Offset);
if (notch)
{
//notches
List <Line> notches = DrillingHoleForConvexCorners(ply0, ply1, -toolr);
//Rhino.RhinoDoc.ActiveDoc.Objects.AddPolyline(pl0Offset);
//Rhino.RhinoDoc.ActiveDoc.Objects.AddPolyline(pl1Offset);
int counter = 0;
for (int i = 0; i < notches.Count; i++)
{
if ((!closed) && (i == 0 || i == (notches.Count - 1)))
{
continue;
}
if (notches[i] == Line.Unset)
{
continue;
}
//Rhino.RhinoDoc.ActiveDoc.Objects.AddLine(notches[i]);
pl0Offset.Insert(i + 1 + counter, notches[i].From);//i+1 because after point
pl1Offset.Insert(i + 1 + counter, notches[i].To);
counter++;
pl0Offset.Insert(i + 1 + counter, pl0Offset[i - 1 + counter]);
pl1Offset.Insert(i + 1 + counter, pl1Offset[i - 1 + counter]);
counter++;
}
}
if (closed)
{
pl0Offset.Close();
pl1Offset.Close();
}
pl0Offset.Transform(inverse);
pl1Offset.Transform(inverse);
return(new Polyline[] { pl0Offset, pl1Offset });
}
public override void OnSkeletonFrameReady(
object sender, SkeletonFrameReadyEventArgs e
)
{
if (!Finished)
{
using (SkeletonFrame s = e.OpenSkeletonFrame())
{
if (s != null)
{
Skeleton[] skels = new Skeleton[s.SkeletonArrayLength];
s.CopySkeletonDataTo(skels);
foreach (Skeleton data in skels)
{
if (
data.TrackingState == SkeletonTrackingState.Tracked
)
{
Point3d leftHip =
PointFromVector(
data.Joints[JointType.HipLeft].Position, false
);
Point3d leftHand =
PointFromVector(
data.Joints[JointType.HandLeft].Position, false
);
Point3d rightHand =
PointFromVector(
data.Joints[JointType.HandRight].Position, false
);
if (
leftHand.DistanceTo(Point3d.Origin) > 0 &&
rightHand.DistanceTo(Point3d.Origin) > 0 &&
leftHand.DistanceTo(rightHand) < 0.03)
{
// Hands are less than 3cm from each other
_drawing = false;
_resizing = false;
Finished = true;
}
else
{
// Hands are within 10cm of each other vertically
// and both hands are above the waist, so we resize
// the profile radius
_resizing =
(leftHand.Z > leftHip.Z &&
rightHand.Z > leftHip.Z &&
Math.Abs(leftHand.Z - rightHand.Z) < 0.1);
// If the left hand is below the waist, we draw
_drawing = (leftHand.Z < leftHip.Z);
}
if (_resizing)
{
// If resizing, set some data to help draw
// a sphere where we're resizing
Vector3d vec = (leftHand - rightHand) / 2;
_resizeLocation = rightHand + vec;
_profRad = vec.Length;
}
if (_drawing)
{
// If we have at least one prior vertex...
if (_vertices.Count > 0)
{
// ... check whether we're a certain distance
// away from the last one before adding it (this
// smooths off the jitters of adding every point)
Point3d lastVert =
_vertices[_vertices.Count - 1];
if (
lastVert.DistanceTo(rightHand) > _profRad * 4
)
{
// Add the new vertex to our list
_vertices.Add(rightHand);
}
}
else
{
// Add the first vertex to our list
_vertices.Add(rightHand);
}
}
break;
}
}
}
}
}
}
public void CaculateAm()
{
for (int i = 0; i < mesh.Faces.Count; i++)
{
int[] f = vs.IndicesFromFace(i);
Point3d p1 = vs[f[0]];
Point3d p2 = vs[f[1]];
Point3d p3 = vs[f[2]];
Circle circle = new Circle(p1, p2, p3);
double a = p1.DistanceTo(p2);
double b = p1.DistanceTo(p3);
double c = p2.DistanceTo(p3);
// Print(f.Length.ToString());
// Print(a.ToString() + "/" + b.ToString() + "/" + c.ToString());
Point3d ci = new Point3d();
int sign = 0;
if (c >= a && c >= b)
{
if ((c * c) < (a * a + b * b))
{
ci = circle.Center;
}
else
{
ci = (p2 + p3) / 2; sign = 1;
}
}
else if (a >= c && a >= b)
{
if ((a * a) < (c * c + b * b))
{
ci = circle.Center;
}
else
{
ci = (p2 + p1) / 2; sign = 2;
}
}
else if (b >= a && b >= c)
{
if ((b * b) < (a * a + c * c))
{
ci = circle.Center;
}
else
{
ci = (p1 + p3) / 2; sign = 3;
}
}
else
{ //Print("error");
}
Point3d p1p2 = (p1 + p2) / 2;
Point3d p1p3 = (p1 + p3) / 2;
Point3d p2p3 = (p3 + p2) / 2;
if (sign == 0)
{
ps[f[0]].Am += areaTri(ci, p1, p1p2) + areaTri(ci, p1, p1p3);
ps[f[1]].Am += areaTri(ci, p2, p1p2) + areaTri(ci, p2, p2p3);
ps[f[2]].Am += areaTri(ci, p3, p1p3) + areaTri(ci, p3, p2p3);
}
else if (sign == 1)
{
ps[f[1]].Am += areaTri(ci, p2, p1p2);
ps[f[2]].Am += areaTri(ci, p3, p1p3);
ps[f[0]].Am += areaTri(ci, p1, p1p2) + areaTri(ci, p1, p1p3);
}
else if (sign == 2)
{
ps[f[1]].Am += areaTri(ci, p2, p2p3);
ps[f[0]].Am += areaTri(ci, p1, p1p3);
ps[f[2]].Am += areaTri(ci, p3, p1p3) + areaTri(ci, p3, p2p3);
}
else if (sign == 3)
{
ps[f[0]].Am += areaTri(ci, p1, p1p2);
ps[f[2]].Am += areaTri(ci, p3, p2p3);
ps[f[1]].Am += areaTri(ci, p2, p1p2) + areaTri(ci, p2, p2p3);
}
else
{// Print("error");
}
//////////////////
ps[f[0]].KG += Vector3d.VectorAngle(p2 - p1, p3 - p1);
ps[f[1]].KG += Vector3d.VectorAngle(p1 - p2, p3 - p2);
ps[f[2]].KG += Vector3d.VectorAngle(p2 - p3, p1 - p3);
/////////////////
}
for (int i = 0; i < el.Count; i++)
{
int[] f = el.GetConnectedFaces(i);
if (f.Length == 2)
{
///////////////
int pi1 = el.GetTopologyVertices(i).I;
int pi2 = el.GetTopologyVertices(i).J;
int pf1 = 0; int pf2 = 0;
int[] vi1 = vs.IndicesFromFace(f[0]);
for (int j = 0; j < 3; j++)
{
if (vi1[j] != pi1 && vi1[j] != pi2)
{
pf1 = vi1[j]; break;
}
}
int[] vi2 = vs.IndicesFromFace(f[1]);
for (int j = 0; j < 3; j++)
{
if (vi2[j] != pi1 && vi2[j] != pi2)
{
pf2 = vi2[j]; break;
}
}
double ang1 = Vector3d.VectorAngle(vs[pi1] - vs[pf1], vs[pi2] - vs[pf1]);
double ang2 = Vector3d.VectorAngle(vs[pi1] - vs[pf2], vs[pi2] - vs[pf2]);
if (ang1 == Math.PI / 2)
{
ang1 = 0;
}
else
{
ang1 = 1 / Math.Tan(ang1);
}
if (ang2 == Math.PI / 2)
{
ang2 = 0;
}
else
{
ang2 = 1 / Math.Tan(ang2);
}
double total = ang1 + ang2;
double t1 = Vector3d.Multiply(ps[pi1].n, (vs[pi1] - vs[pi2]));
double t2 = Vector3d.Multiply(ps[pi2].n, (vs[pi2] - vs[pi1]));
ps[pi1].KH += t1 * total;
ps[pi2].KH += t2 * total;
////////////////
}
}
}
protected override SamplerStatus Sampler(JigPrompts prompts)
{
int num;
SamplerStatus samplerStatus;
int num2;
object obj;
try
{
ProjectData.ClearProjectError();
num = 2;
PromptPointResult promptPointResult = prompts.AcquirePoint(new JigPromptPointOptions("\r\n请指定下一点:")
{
Cursor = 2,
BasePoint = this.point3d_0,
UseBasePoint = true
});
Point3d value = promptPointResult.Value;
if (value != this.point3d_1)
{
checked
{
if (this.bool_0)
{
this.double_0 = value.DistanceTo(this.point3d_0);
this.short_0 = (short)Math.Round(this.double_0 / 6.0);
this.double_2 = value.GetVectorTo(this.point3d_0).AngleOnPlane(new Plane());
this.point2d_0..ctor(this.point3d_0.X, this.point3d_0.Y);
this.jipAtgRsh..ctor(value.X, value.Y);
}
else
{
this.short_0 = (short)Math.Round(value.DistanceTo(this.point3d_0));
if ((double)this.short_0 >= this.double_0)
{
this.short_0 = (short)Math.Round(this.double_0);
}
else if ((double)this.short_0 <= this.double_0 / 6.0)
{
this.short_0 = (short)Math.Round(this.double_0 / 6.0);
}
}
}
Point2d point2dAngle = CAD.GetPoint2dAngle(this.jipAtgRsh, (double)this.short_0 / 6.0, this.double_2 * 180.0 / 3.1415926535897931 - 90.0);
Point2d point2dAngle2 = CAD.GetPoint2dAngle(this.jipAtgRsh, (double)this.short_0 / 3.0, this.double_2 * 180.0 / 3.1415926535897931 - 90.0);
Point2d point2dAngle3 = CAD.GetPoint2dAngle(this.jipAtgRsh, (double)this.short_0 / 3.0, this.double_2 * 180.0 / 3.1415926535897931 + 180.0);
Point2d point2dAngle4 = CAD.GetPoint2dAngle(this.jipAtgRsh, (double)this.short_0 / 3.0, this.double_2 * 180.0 / 3.1415926535897931 + 90.0);
Point2d point2dAngle5 = CAD.GetPoint2dAngle(this.jipAtgRsh, (double)this.short_0 / 6.0, this.double_2 * 180.0 / 3.1415926535897931 + 90.0);
this.polyline_0 = new Polyline();
this.polyline_0.AddVertexAt(0, this.point2d_0, 0.0, 0.0, 0.0);
this.polyline_0.AddVertexAt(1, point2dAngle, 0.0, 0.0, 0.0);
this.polyline_0.AddVertexAt(2, point2dAngle2, 0.0, 0.0, 0.0);
this.polyline_0.AddVertexAt(3, point2dAngle3, 0.0, 0.0, 0.0);
this.polyline_0.AddVertexAt(4, point2dAngle4, 0.0, 0.0, 0.0);
this.polyline_0.AddVertexAt(5, point2dAngle5, 0.0, 0.0, 0.0);
this.polyline_0.Closed = true;
this.polyline_0.Layer = "注释";
this.entity_0[0] = this.polyline_0;
this.point3d_1 = value;
samplerStatus = 0;
goto IL_431;
}
samplerStatus = 1;
goto IL_431;
IL_3E9:
num2 = -1;
@switch(ICSharpCode.Decompiler.ILAst.ILLabel[], num);
IL_3FE:
goto IL_426;
IL_400:
samplerStatus = 1;
goto IL_431;
}
catch when(endfilter(obj is Exception & num != 0 & num2 == 0))
{
Exception ex = (Exception)obj2;
goto IL_3E9;
}
IL_426:
throw ProjectData.CreateProjectError(-2146828237);
IL_431:
SamplerStatus result = samplerStatus;
if (num2 != 0)
{
ProjectData.ClearProjectError();
}
return(result);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
List <double> node = new List <double>();
List <double> nodeX = new List <double>();
List <double> nodeY = new List <double>();
List <double> nodeZ = new List <double>();
List <double> nodeNum = new List <double>();
List <double> stressesTen = new List <double>();
List <double> stressesCom = new List <double>();
List <double> nx = new List <double>();
List <double> ny = new List <double>();
List <Fiber> Fibers = new List <Fiber>();
Surface Srf4Nodes = null;
DA.GetDataList("X", nodeX);
DA.GetDataList("Y", nodeY);
DA.GetDataList("Z", nodeZ);
DA.GetDataList("Node", node); // small
DA.GetDataList("Node Number", nodeNum); // big (duplicate)
DA.GetDataList("Nodal Tension Stress", stressesTen);
DA.GetDataList("Nodal Compression Stress", stressesCom);
DA.GetDataList("Nodal Force Nx", nx);
DA.GetDataList("Nodal Force Ny", ny);
DA.GetDataList("Custom Fibers", Fibers);
DA.GetData("Surface", ref Srf4Nodes);
// SoFiNode: structure info assambly
List <SoFiNode> SoFiNodesOnSrf = new List <SoFiNode>();
for (int i = 0; i < nodeX.Count; i++)
{
SoFiNode inode = new SoFiNode(node[i], nodeX[i], nodeY[i], nodeZ[i]);
double u;
double v;
Srf4Nodes.ClosestPoint(inode.Node, out u, out v);
Point3d closestPt = Srf4Nodes.PointAt(u, v);
if (closestPt.DistanceTo(inode.Node) < 0.01) // on surface
{
SoFiNodesOnSrf.Add(inode);
}
}
// so far the sofiNodes have no structure info
// ====================== structure info big list ===================================
// node number, compression stress, tension stress, force in local x, force in local y
List <NodalStructureInfo> NodalStructureInfo = new List <NodalStructureInfo>();
for (int i = 0; i < nodeNum.Count; i++)
{
NodalStructureInfo inodal = new NodalStructureInfo(nodeNum[i], stressesTen[i], stressesCom[i], nx[i], ny[i]);
NodalStructureInfo.Add(inodal);
}
// ==================================================================================
// abandom the nodes not on the srf
// list.RemoveAll(item => !list2.Contains(item))
List <double> nodeNumOnSrf = SoFiNodesOnSrf.Select(o => o.NodeNum).ToList();
NodalStructureInfo.RemoveAll(o => !nodeNumOnSrf.Contains(o.NodeNum)); // remove structure info not on srf
List <NodalStructureInfo> CondensedNodalStructureInfo = new List <RP1516.NodalStructureInfo>();
for (int i = 0; i < SoFiNodesOnSrf.Count; i++)
{
double iNodeNumber = SoFiNodesOnSrf[i].NodeNum;
List <NodalStructureInfo> iNodalinfo = NodalStructureInfo.Where(o => o.NodeNum == iNodeNumber).ToList();
double iNodeCount = iNodalinfo.Count();
// Com
double iComStress = iNodalinfo
.Select(o => o.StressCom).ToList().Sum()
/ iNodeCount;
// Ten
double iTenStress = iNodalinfo
.Select(o => o.StressTen).ToList().Sum()
/ iNodeCount;
// NX
double iNX = iNodalinfo
.Select(o => o.Nx).ToList().Sum()
/ iNodeCount;
// NY
double iNY = iNodalinfo
.Select(o => o.Ny).ToList().Sum()
/ iNodeCount;
NodalStructureInfo.Except(iNodalinfo);
SoFiNodesOnSrf[i].StressCom = iComStress;
SoFiNodesOnSrf[i].StressTen = iTenStress;
SoFiNodesOnSrf[i].Nx = iNX;
SoFiNodesOnSrf[i].Ny = iNY;
}
//List<NodalStructureInfo> CondensedNodalStructureInfo = Utils.CheckDuplicate(NodalStructureInfo);
// SoFiNode.InfoRead(SoFiNodesOnSrf, CondensedNodalStructureInfo);
// calculate structure significance
Fibers.ForEach(o => o.StrutureValue(SoFiNodesOnSrf));
List <Fiber> CriticleFibers = Fibers
.OrderByDescending(o => o.StructureFactor)
//.Take((int)(Fibers.Count * 0.2))
.ToList();
// Output
DA.SetDataList("SoFiNodes", SoFiNodesOnSrf);
DA.SetDataList("Node Positions", SoFiNodesOnSrf.Select(o => o.Node).ToList());
DA.SetDataList("Node Number", SoFiNodesOnSrf.Select(o => o.NodeNum).ToList());
DA.SetDataList("Info Number", CondensedNodalStructureInfo.Select(o => o.NodeNum).ToList());
DA.SetDataList("Criticle Fibers", CriticleFibers.Select(o => o.FiberCrv).ToList());
DA.SetDataList("Value", SoFiNodesOnSrf.Select(o => o.StressCom).ToList());
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
Line lineA = new Line();
Line lineB = new Line();
int number = 0;
if (!DA.GetData(0, ref lineA))
{
return;
}
if (!DA.GetData(1, ref lineB))
{
return;
}
if (!DA.GetData(2, ref number))
{
return;
}
double t1 = 0;
double t2 = 0;
Rhino.Geometry.Intersect.Intersection.LineLine(lineA, lineB, out t1, out t2);
Point3d pt1 = lineA.PointAt(t1);
Point3d pt2 = lineB.PointAt(t2);
if (number <= 1)
{
return;
}
if (pt1.DistanceTo(pt2) > 0.0000000001)
{
this.AddRuntimeMessage(GH_RuntimeMessageLevel.Warning, "指定的两条直线不共面");
///////////////////////////////
return;
}
Point3d start1 = lineA.From;
Point3d end1 = lineA.To;
if (lineA.To.DistanceTo(pt1) > lineA.From.DistanceTo(pt1))
{
end1 = lineA.From;
start1 = lineA.To;
}
Point3d start2 = lineB.From;
Point3d end2 = lineB.To;
if (lineB.To.DistanceTo(pt1) > lineB.From.DistanceTo(pt1))
{
end2 = lineB.From;
start2 = lineB.To;
}
Vector3d v1 = Point3d.Subtract(start1, pt1);
Vector3d v2 = Point3d.Subtract(start2, pt2);
double angle = Vector3d.VectorAngle(v1, v2);
double sgement = angle / number;
////////////////////////////////////////////////////////////////////等分
double radius = pt1.DistanceTo(start1);///圆弧半径
if (radius < pt1.DistanceTo(start2))
{
radius = pt1.DistanceTo(start2);
}
Plane pln = new Plane(pt1, v1, v2);
Arc arc = new Arc(pln, radius, angle);
Point3d[] pts;
arc.ToNurbsCurve().DivideByCount(number, false, out pts);///等分点
///////////////////////////////////////////////////////////////////////////
Line line1 = new Line(start1, start2);
Line line2 = new Line(end1, end2);
List <Line> collect = new List <Line>();
foreach (Point3d ppp in pts)
{
collect.Add(new Line(pt1, ppp));
}
////////////////////////////////////////////////////////////////////
List <Line> last = new List <Line>();
for (int i = 0; i < collect.Count; i++)
{
Point3d start = pt1;
if (Rhino.Geometry.Intersect.Intersection.CurveCurve(lineA.ToNurbsCurve(), lineB.ToNurbsCurve(), 0, 0).Count == 0)////输入的两条直线无交点
{
if (Rhino.Geometry.Intersect.Intersection.CurveCurve(line2.ToNurbsCurve(), collect[i].ToNurbsCurve(), 0, 0).Count == 0)
{
start = pt1;
}
else
{
start = Rhino.Geometry.Intersect.Intersection.CurveCurve(line2.ToNurbsCurve(), collect[i].ToNurbsCurve(), 0, 0)[0].PointA;
}
}
Point3d end = Rhino.Geometry.Intersect.Intersection.CurveCurve(line1.ToNurbsCurve(), collect[i].ToNurbsCurve(), 0, 0)[0].PointA;
last.Add(new Line(start, end));
}
DA.SetDataList(0, last);
}
/// <summary>
/// Cuts the curve between perp indexes.
/// </summary>
/// <returns>The curve between perp indexes.</returns>
/// <param name="g">The green component.</param>
/// <param name="perpGs">Perp gs.</param>
/// <param name="index1">Index1.</param>
/// <param name="index2">Index2.</param>
public Curve CutCurveBetweenPerpIndexes(Curve g, List <Curve> perpGs, int index1, int index2)
{
Curve tempG = g.DuplicateCurve();
tempG.Domain = new Interval(0, 1);
CurveIntersections curveInt = Intersection.CurveCurve(tempG, perpGs[index1], 0.0001, 0.0001);
CurveIntersections curveInt2 = Intersection.CurveCurve(tempG, perpGs[index2], 0.0001, 0.0001);
double t1 = tempG.Domain.T0;
double t2 = tempG.Domain.T1;
if (curveInt.Count != 0)
{
t1 = curveInt[0].ParameterA;
}
if (curveInt2.Count != 0)
{
t2 = curveInt2[0].ParameterA;
}
double tMid;
if (t1 > t2)
{
double temp = t1;
t1 = t2;
t2 = temp;
}
tMid = (t2 + t1) / 2;
Point3d midPoint = tempG.PointAt(tMid);
if (curveInt.Count != 0 && t1 > tempG.Domain.T0)
{
Curve[] splitCurves = tempG.Split(t1);
if (splitCurves != null)
{
foreach (Curve crv in splitCurves)
{
double closestT;
crv.ClosestPoint(midPoint, out closestT);
double distance = midPoint.DistanceTo(crv.PointAt(closestT));
if (distance < 0.001)
{
tempG = crv;
}
}
}
}
tempG.Domain = new Interval(0, 1);
t2 = tempG.Domain.T1;
curveInt2 = Intersection.CurveCurve(tempG, perpGs[index2], 0.0001, 0.0001);
if (curveInt2.Count != 0)
{
t2 = curveInt2[0].ParameterA;
}
if (curveInt2.Count != 0 && t2 < tempG.Domain.T1 && t2 > 0)
{
Curve[] splitCurves = tempG.Split(t2);
if (splitCurves != null)
{
foreach (Curve crv in splitCurves)
{
double closestT;
crv.ClosestPoint(midPoint, out closestT);
double distance = midPoint.DistanceTo(crv.PointAt(closestT));
if (distance < 0.001)
{
tempG = crv;
}
}
}
}
return(tempG);
}
/// <summary>
/// The internal Zoom() method (credit: AutoCAD .NET Developer's Guide).
/// </summary>
/// <param name="min"></param>
/// <param name="max"></param>
/// <param name="center"></param>
/// <param name="factor"></param>
internal static void Zoom(Point3d min, Point3d max, Point3d center, double factor)
{
// Get the current document and database
var document = Application.DocumentManager.MdiActiveDocument;
var database = document.Database;
int currentViewport = Convert.ToInt32(Application.GetSystemVariable("CVPORT"));
// Get the extents of the current space no points
// or only a center point is provided
// Check to see if Model space is current
if (database.TileMode)
{
if (min.Equals(new Point3d()) && max.Equals(new Point3d()))
{
min = database.Extmin;
max = database.Extmax;
}
}
else
{
// Check to see if Paper space is current
if (currentViewport == 1)
{
// Get the extents of Paper space
if (min.Equals(new Point3d()) && max.Equals(new Point3d()))
{
min = database.Pextmin;
max = database.Pextmax;
}
}
else
{
// Get the extents of Model space
if (min.Equals(new Point3d()) && max.Equals(new Point3d()))
{
min = database.Extmin;
max = database.Extmax;
}
}
}
// Start a transaction
using (var trans = database.TransactionManager.StartTransaction())
{
// Get the current view
using (var currentView = document.Editor.GetCurrentView())
{
Extents3d extents;
// Translate WCS coordinates to DCS
var matWCS2DCS = Matrix3d.PlaneToWorld(currentView.ViewDirection);
matWCS2DCS = Matrix3d.Displacement(currentView.Target - Point3d.Origin) * matWCS2DCS;
matWCS2DCS = Matrix3d.Rotation(
angle: -currentView.ViewTwist,
axis: currentView.ViewDirection,
center: currentView.Target) * matWCS2DCS;
// If a center point is specified, define the min and max
// point of the extents
// for Center and Scale modes
if (center.DistanceTo(Point3d.Origin) != 0)
{
min = new Point3d(center.X - (currentView.Width / 2), center.Y - (currentView.Height / 2), 0);
max = new Point3d((currentView.Width / 2) + center.X, (currentView.Height / 2) + center.Y, 0);
}
// Create an extents object using a line
using (Line line = new Line(min, max))
{
extents = new Extents3d(line.Bounds.Value.MinPoint, line.Bounds.Value.MaxPoint);
}
// Calculate the ratio between the width and height of the current view
double viewRatio = currentView.Width / currentView.Height;
// Tranform the extents of the view
matWCS2DCS = matWCS2DCS.Inverse();
extents.TransformBy(matWCS2DCS);
double width;
double height;
Point2d newCenter;
// Check to see if a center point was provided (Center and Scale modes)
if (center.DistanceTo(Point3d.Origin) != 0)
{
width = currentView.Width;
height = currentView.Height;
if (factor == 0)
{
center = center.TransformBy(matWCS2DCS);
}
newCenter = new Point2d(center.X, center.Y);
}
else // Working in Window, Extents and Limits mode
{
// Calculate the new width and height of the current view
width = extents.MaxPoint.X - extents.MinPoint.X;
height = extents.MaxPoint.Y - extents.MinPoint.Y;
// Get the center of the view
newCenter = new Point2d(
((extents.MaxPoint.X + extents.MinPoint.X) * 0.5),
((extents.MaxPoint.Y + extents.MinPoint.Y) * 0.5));
}
// Check to see if the new width fits in current window
if (width > (height * viewRatio))
{
height = width / viewRatio;
}
// Resize and scale the view
if (factor != 0)
{
currentView.Height = height * factor;
currentView.Width = width * factor;
}
// Set the center of the view
currentView.CenterPoint = newCenter;
// Set the current view
document.Editor.SetCurrentView(currentView);
}
// Commit the changes
trans.Commit();
}
}
public void ComputeDesiredVelocity(List <FlockAgent> neighbours)
{
// First, reset the desired velocity to 0
desiredVelocity = new Vector3d(0.0, 0.0, 0.0);
var bounceMultiplier = 30;
// ===============================================================================
// Pull the agent back if it gets out of the bounding box
// ===============================================================================
//double boundingBoxSize = 30.0;
//if (Position.X < FlockSystem.Min.X)
// desiredVelocity += new Vector3d((FlockSystem.Max.X - Position.X) * bounceMultiplier, FlockSystem.Min.Y, FlockSystem.Min.Z);
//else if (Position.X > FlockSystem.Max.X)
// desiredVelocity += new Vector3d(-Position.X * bounceMultiplier, FlockSystem.Min.Y, FlockSystem.Min.Z);
//if (Position.Y < FlockSystem.Min.Y)
// desiredVelocity += new Vector3d(FlockSystem.Min.X, (FlockSystem.Max.Y - Position.Y) * bounceMultiplier, FlockSystem.Min.Z);
//else if (Position.Y > FlockSystem.Max.Y)
// desiredVelocity += new Vector3d(FlockSystem.Min.X, (-Position.Y) * bounceMultiplier, FlockSystem.Min.Z);
//if (Position.Z < FlockSystem.Min.Z)
//desiredVelocity += new Vector3d(FlockSystem.Min.X, FlockSystem.Min.Y, FlockSystem.Max.Z - Position.Z);
//else if (Position.Z > FlockSystem.Max.Z)
// desiredVelocity += new Vector3d(FlockSystem.Min.X, FlockSystem.Min.Y, -Position.Z);
if (!FlockSystem.Brep.IsPointInside(Position, 0.01, false))
{
desiredVelocity += new Vector3d(-Position.X * bounceMultiplier, -Position.Y * bounceMultiplier, -Position.Z * bounceMultiplier);
}
// ===============================================================================
// If there are no neighbours nearby, the agent will maintain its veloctiy,
// else it will perform the "alignment", "cohension" and "separation" behaviours
// ===============================================================================
if (neighbours.Count == 0)
{
desiredVelocity += Velocity; // maintain the current velocity
}
else
{
// -------------------------------------------------------------------------------
// "Alignment" behavior
// -------------------------------------------------------------------------------
Vector3d alignment = Vector3d.Zero;
foreach (FlockAgent neighbour in neighbours)
{
alignment += neighbour.Velocity;
}
// We divide by the number of neighbours to actually get their average velocity
alignment /= neighbours.Count;
desiredVelocity += FlockSystem.AlignmentStrength * alignment;
// -------------------------------------------------------------------------------
// "Cohesion" behavior
// -------------------------------------------------------------------------------
Point3d centre = Point3d.Origin;
foreach (FlockAgent neighbour in neighbours)
{
centre += neighbour.Position;
}
// We divide by the number of neighbours to actually get their centre of mass
centre /= neighbours.Count;
Vector3d cohesion = centre - Position;
desiredVelocity += FlockSystem.CohesionStrength * cohesion;
// -------------------------------------------------------------------------------
// "Separation" behavior
// -------------------------------------------------------------------------------
Vector3d separation = Vector3d.Zero;
foreach (FlockAgent neighbour in neighbours)
{
double distanceToNeighbour = Position.DistanceTo(neighbour.Position);
if (distanceToNeighbour < FlockSystem.SeparationDistance)
{
Vector3d getAway = Position - neighbour.Position;
/* We scale the getAway vector by inverse of distanceToNeighbour to make
* the getAway vector bigger as the agent gets closer to its neighbour */
separation += getAway / (getAway.Length * distanceToNeighbour);
}
}
desiredVelocity += FlockSystem.SeparationStrength * separation;
}
// ===============================================================================
// Avoiding the obstacles (repellers)
// ===============================================================================
foreach (Circle repeller in FlockSystem.Repellers)
{
double distanceToRepeller = Position.DistanceTo(repeller.Center);
Vector3d repulsion = Position - repeller.Center;
// Repulstion gets stronger as the agent gets closer to the repeller
repulsion /= (repulsion.Length * distanceToRepeller);
// Repulsion strength is also proportional to the radius of the repeller circle/sphere
// This allows the user to tweak the repulsion strength by tweaking the radius
repulsion *= 30.0 * repeller.Radius;
desiredVelocity += repulsion;
}
}
public bool subdivideBlocks(urbanModel model, int minPlotDepth, int maxPlotWidth)
{
//check dimensions, find shorter dim, validate if it needs to be subdivided, (if minPLotDepth can be achieved, depth > minPlotDepth * 2)
//if so subdivide halfway, then into smaller plots based on maxPlot width
foreach (block itBlock in model.blocks)
{
Brep itSrf = itBlock.blockSrf; // to get itBlock surface as Brep (use class or object outside this class urbSim, by accessing from and assigning to fields / properties / attributes)
itBlock.plots = new List <plot>(); //so this is where plots are linked to block; plots assigned to block object, not to model object
Curve[] blockBorderCrvs = itSrf.DuplicateNakedEdgeCurves(true, false); //border curves of each itBlock
List <Curve> splitLines = new List <Curve>();
itSrf.Faces[0].SetDomain(0, new Interval(0, 1)); //reparameterise surface U and V, so domains 0 - 1
itSrf.Faces[0].SetDomain(1, new Interval(0, 1));
Point3d pt1 = itSrf.Faces[0].PointAt(0, 0);
Point3d pt2 = itSrf.Faces[0].PointAt(0, 1);
Point3d pt3 = itSrf.Faces[0].PointAt(1, 1);
Point3d pt4 = itSrf.Faces[0].PointAt(1, 0);
double length = pt1.DistanceTo(pt2);
double width = pt1.DistanceTo(pt4);
Point3d sdPt1 = new Point3d();
Point3d sdPt2 = new Point3d();
if (length > width)
{
if (width > (minPlotDepth * 2)) //suitable for subdivision
{
//create a subdividing line
sdPt1 = itSrf.Faces[0].PointAt(0.5, 0); //
sdPt2 = itSrf.Faces[0].PointAt(0.5, 1);
}
}
else //if width is wider
{
if (length > (minPlotDepth * 2))
{
sdPt1 = itSrf.Faces[0].PointAt(0, 0.5);
sdPt2 = itSrf.Faces[0].PointAt(1, 0.5);
}
}
Line subDLine = new Line(sdPt1, sdPt2);
Curve subDCrv = subDLine.ToNurbsCurve();
splitLines.Add(subDCrv);
double crvLength = subDCrv.GetLength();
double noPlots = Math.Floor(crvLength / maxPlotWidth);
for (int t = 0; t < noPlots; t++)
{
double tVal = t * 1 / noPlots; //t is 0, 0.2, 0.4 ... 1
Plane perpFrm;
Point3d evalPt = subDCrv.PointAtNormalizedLength(tVal);
subDCrv.PerpendicularFrameAt(tVal, out perpFrm);
//inpCrv.PerpendicularFrameAt(t, out perpFrm) 'out perpFrm' assigns to the variable perpFrm
Point3d ptPer2Up = Point3d.Add(evalPt, perpFrm.XAxis);
Point3d ptPer2Down = Point3d.Add(evalPt, -perpFrm.XAxis);
//Draw a line perpendicular
Line ln1 = new Line(evalPt, ptPer2Up);
Line ln2 = new Line(evalPt, ptPer2Down);
Curve lnExt1 = ln1.ToNurbsCurve().ExtendByLine(CurveEnd.End, blockBorderCrvs); //lnExt extended to all border curves in inObst (4 boundaries plus new lnExt)
Curve lnExt2 = ln2.ToNurbsCurve().ExtendByLine(CurveEnd.End, blockBorderCrvs);
splitLines.Add(lnExt1);
splitLines.Add(lnExt2);
}
Brep plotPolySurface = itSrf.Faces[0].Split(splitLines, RhinoDoc.ActiveDoc.ModelAbsoluteTolerance); //split face using 3D trimming curves
foreach (BrepFace itBF in plotPolySurface.Faces)
{
Brep itPlot = itBF.DuplicateFace(false); // a collection of Brep faces
itPlot.Faces.ShrinkFaces();
itBlock.plots.Add(new plot(itPlot, itBlock.type)); //plots assigned to block object as list of Breps // this syntax, for assigning to a list outside of this class and into urbSim.block.plots
//itBlock.type takes integer value from 'block' object and assigns same value to 'plot' object
//RhinoDoc.ActiveDoc.Objects.AddBrep(itPlot);
}
}
return(true);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
List <Curve> C_ = NGonsCore.Clipper.DataAccessHelper.FetchList <Curve>(DA, "Curves");
double T = NGonsCore.Clipper.DataAccessHelper.Fetch <double>(DA, "Tolerance");
List <Point3d> P = NGonsCore.Clipper.DataAccessHelper.FetchList <Point3d>(DA, "Points");
List <Curve> curves = new List <Curve>();
if (P.Count > 0)
{
for (int i = 0; i < C_.Count; i++)
{
Curve C = C_[i].DuplicateCurve();
PointCloud cloud = new PointCloud(P);
double tol = (T == 0.0) ? C.GetLength() * 0.5 : T;
Point3d p0 = cloud.PointAt(cloud.ClosestPoint(C.PointAtStart));
Point3d p1 = cloud.PointAt(cloud.ClosestPoint(C.PointAtEnd));
if (p0.DistanceTo(C.PointAtStart) < tol)
{
C.SetStartPoint(p0);
}
if (p1.DistanceTo(C.PointAtEnd) < tol)
{
C.SetEndPoint(p1);
}
curves.Add(C);
}
}
else
{
PointCloud cloud = new PointCloud();
double tol = (T == 0.0) ? 0.01 : T;
base.Message = tol.ToString();
//Add start and end point to pointcloud with incrementing nornal if point already exists
for (int i = 0; i < C_.Count; i++)
{
if (i == 0)
{
cloud.Add(C_[i].PointAtStart, new Vector3d(0, 0, 1));
cloud.Add(C_[i].PointAtEnd, new Vector3d(0, 0, 1));
}
else
{
int cp0 = cloud.ClosestPoint(C_[i].PointAtStart);
bool flag0 = cloud.PointAt(cp0).DistanceToSquared(C_[i].PointAtStart) < tol;
if (flag0)
{
cloud[cp0].Normal = new Vector3d(0, 0, cloud[cp0].Normal.Z + 1);
}
else
{
cloud.Add(C_[i].PointAtStart, new Vector3d(0, 0, 1));
}
int cp1 = cloud.ClosestPoint(C_[i].PointAtEnd);
bool flag1 = cloud.PointAt(cp1).DistanceToSquared(C_[i].PointAtEnd) < tol;
if (flag1)
{
cloud[cp1].Normal = new Vector3d(0, 0, cloud[cp1].Normal.Z + 1);
}
else
{
cloud.Add(C_[i].PointAtEnd, new Vector3d(0, 0, 1));
}
}
}//for
//List<Curve> curves = new List<Curve>();
for (int i = 0; i < C_.Count; i++)
{
//Print(cloud[cloud.ClosestPoint(C[i].PointAtStart)].Normal.Z.ToString() + " " + cloud[cloud.ClosestPoint(C[i].PointAtEnd)].Normal.Z.ToString());
int a = cloud.ClosestPoint(C_[i].PointAtStart);
int b = cloud.ClosestPoint(C_[i].PointAtEnd);
bool flag0 = cloud[a].Normal.Z != 1;
bool flag1 = cloud[b].Normal.Z != 1;
Curve c = C_[i].DuplicateCurve();
if (flag0)
{
c.SetStartPoint(cloud[a].Location);
}
if (flag1)
{
c.SetEndPoint(cloud[b].Location);
}
curves.Add(c);
}
}
DA.SetDataList(0, curves);
}
public CMesh(Mesh _mesh, List <Line> M, List <Line> V, List <Line> T)
{
this.mesh = _mesh.DuplicateMesh();
this.mesh.FaceNormals.ComputeFaceNormals();
this.orig_faces = _mesh.Faces;
var tri = this.InsertTriangulate();
var edges = mesh.TopologyEdges;
var verts = mesh.TopologyVertices;
this.edgeInfo = new List <Char>();
for (int i = 0; i < edges.Count; i++)
{
if (edges.IsNgonInterior(i))
{
edgeInfo.Add('T');
}
else
{
edgeInfo.Add('U');
}
}
foreach (Line m in M)
{
Point3d a = m.From;
Point3d b = m.To;
int found = 0;
int vertsCount = verts.Count;
int j = 0;
int fromIndex = -1;
int toIndex = -1;
while (found != 2 && j < vertsCount)
{
Point3d p = verts[j];
if (p.DistanceTo(a) < 0.1)
{
fromIndex = j;
found++;
}
else if (p.DistanceTo(b) < 0.1)
{
toIndex = j;
found++;
}
j++;
}
int ind = edges.GetEdgeIndex(fromIndex, toIndex);
if (ind != -1)
{
edgeInfo[ind] = 'M';
}
}
foreach (Line v in V)
{
Point3d a = v.From;
Point3d b = v.To;
int found = 0;
int vertsCount = verts.Count;
int j = 0;
int fromIndex = -1;
int toIndex = -1;
while (found != 2 && j < vertsCount)
{
Point3d p = verts[j];
if (p.DistanceTo(a) < 0.1)
{
fromIndex = j;
found++;
}
else if (p.DistanceTo(b) < 0.1)
{
toIndex = j;
found++;
}
j++;
}
int ind = edges.GetEdgeIndex(fromIndex, toIndex);
if (ind != -1)
{
edgeInfo[ind] = 'V';
}
}
if (tri.Count != 0)
{
foreach (List <int> v in tri)
{
int ind = edges.GetEdgeIndex(v[0], v[1]);
if (ind != -1)
{
this.edgeInfo[ind] = 'T';
}
}
}
foreach (Line t in T)
{
Point3d a = t.From;
Point3d b = t.To;
int found = 0;
int vertsCount = verts.Count;
int j = 0;
int fromIndex = -1;
int toIndex = -1;
while (found != 2 && j < vertsCount)
{
Point3d p = verts[j];
if (p.DistanceTo(a) < 0.1)
{
fromIndex = j;
found++;
}
else if (p.DistanceTo(b) < 0.1)
{
toIndex = j;
found++;
}
j++;
}
int ind = edges.GetEdgeIndex(fromIndex, toIndex);
if (ind != -1)
{
edgeInfo[ind] = 'T';
}
}
List <bool> naked = new List <bool>(_mesh.GetNakedEdgePointStatus());
for (int i = 0; i < mesh.TopologyEdges.Count; i++)
{
if (edges.GetConnectedFaces(i).Count() == 1)
{
this.edgeInfo[i] = 'B';
}
}
GetMeshFundamentalInfo();
GetTriangulatedFacePairBasicInfo(this);
GetMountainFacePairBasicInfo(this);
GetValleyFacePairBasicInfo(this);
this.inner_edge_assignment = GetInnerEdgeAssignment();
}
public static bool IsEatable(Point3d food)
{
//find closest particle to food
double closest_distance = double.MaxValue;
Particle p_closest = null;
/// GET KEY-ZONES FOR FOOD (0/+/- X,Y,Z)
/// FOR EACH ZONES - IF EXISTS, FIND CLOSEST PARTICLE
List<string> zones = GetZones(food);
foreach (string zone_id in zones)
{
List<Particle> zone;
if (Zones.TryGetValue(zone_id, out zone))
{
for (int i = 0; i < zone.Count(); i++)
{
double actual_distance = food.DistanceTo(zone[i].Position);
if (actual_distance < closest_distance)
{
p_closest = zone[i];
closest_distance = actual_distance;
//if (closest_distance < infuence_distance * 0.2)
//continue;
}
}
}
}
//===: closest particle is particle with index x in the field
/// STORE AS A LINK TO THE PARTICLE - THEN TARGET FOOD
//if food is too close - eat it, otherwise target it
if (closest_distance <= eatable_distance)
return true;
else
{
if (closest_distance <= infuence_distance)
{
p_closest.TargetFood(food, infuence_distance - closest_distance); //(infuence_distance - closest_distance) as factor
Temp.Add(p_closest);
}
//prepare to move
return false;
}
}
public static Mesh CullMesh(Mesh input, double tol, out int[] culledFaces)
{
if (tol == 0)
{
return(CullMeshExact(input, out culledFaces));
}
Mesh output = new Mesh();
List <Point3d> culledPts = new List <Point3d>();
int[] indexMap = new int[input.Vertices.Count];
List <int> _culledFaces = new List <int>();
for (int i = 0; i < input.Vertices.Count; i++)
{
Point3d inputPt = input.Vertices[i];
int index = -1;
for (int j = 0; j < culledPts.Count; j++)
{
if (inputPt.DistanceTo(culledPts[j]) < tol)
{
index = j;
break;
}
}
if (index != -1)
{
indexMap[i] = index;
}
else
{
culledPts.Add(inputPt);
indexMap[i] = culledPts.Count - 1;
}
}
output.Vertices.AddVertices(culledPts);
for (int i = 0; i < input.Faces.Count; i++)
{
MeshFace face = new MeshFace();
face.A = indexMap[input.Faces[i].A];
face.B = indexMap[input.Faces[i].B];
face.C = indexMap[input.Faces[i].C];
face.D = indexMap[input.Faces[i].D];
double area = GetFaceArea(output, face);
if (area > 1e-5)
{
output.Faces.AddFace(face);
}
else
{
_culledFaces.Add(i);
}
}
culledFaces = _culledFaces.ToArray();
return(output);
}
private bool CursorHasMoved()
{
return(_currentPoint.DistanceTo(_prevPoint) > 1e-3);
}
private (List <List <Point3d> >, List <List <int> >, List <List <Line> >, List <List <Brep> >, List <Node>, List <Element>, List <Point3d>) CreateMesh(Point3d[] cornerNodes, int u, int v, int w)
{
//Output-lists
List <List <int> > globalConnectivity = new List <List <int> >();
List <List <Point3d> > hexPoints = new List <List <Point3d> >();
List <List <Line> > edgeMesh = new List <List <Line> >();
List <List <Brep> > surfacesMesh = new List <List <Brep> >();
List <Node> nodes = new List <Node>();
List <Element> elements = new List <Element>();
List <Point3d> globalPoints = new List <Point3d>();
//Distances in w-direction after dividing in w elements
double lz1 = (cornerNodes[0].DistanceTo(cornerNodes[4])) / w;
double lz2 = (cornerNodes[1].DistanceTo(cornerNodes[5])) / w;
double lz3 = (cornerNodes[2].DistanceTo(cornerNodes[6])) / w;
double lz4 = (cornerNodes[3].DistanceTo(cornerNodes[7])) / w;
Vector3d vec_z1 = (cornerNodes[4] - cornerNodes[0]) / (cornerNodes[0].DistanceTo(cornerNodes[4]));
Vector3d vec_z2 = (cornerNodes[5] - cornerNodes[1]) / (cornerNodes[1].DistanceTo(cornerNodes[5]));
Vector3d vec_z3 = (cornerNodes[6] - cornerNodes[2]) / (cornerNodes[2].DistanceTo(cornerNodes[6]));
Vector3d vec_z4 = (cornerNodes[7] - cornerNodes[3]) / (cornerNodes[3].DistanceTo(cornerNodes[7]));
List <Point3d> points = new List <Point3d>();
for (int i = 0; i <= w; i++)
{
//Creating points in w-direction
Point3d p1_w = new Point3d(cornerNodes[0].X + lz1 * i * vec_z1.X, cornerNodes[0].Y + lz1 * vec_z1.Y * i, cornerNodes[0].Z + lz1 * vec_z1.Z * i);
Point3d p2_w = new Point3d(cornerNodes[1].X + lz2 * i * vec_z2.X, cornerNodes[1].Y + lz2 * vec_z2.Y * i, cornerNodes[1].Z + lz2 * vec_z2.Z * i);
Point3d p3_w = new Point3d(cornerNodes[2].X + lz3 * i * vec_z3.X, cornerNodes[2].Y + lz3 * vec_z3.Y * i, cornerNodes[2].Z + lz3 * vec_z3.Z * i);
Point3d p4_w = new Point3d(cornerNodes[3].X + lz4 * i * vec_z4.X, cornerNodes[3].Y + lz4 * vec_z4.Y * i, cornerNodes[3].Z + lz4 * vec_z4.Z * i);
Vector3d vecV1 = (p4_w - p1_w) / (p1_w.DistanceTo(p4_w));
Vector3d vecV2 = (p3_w - p2_w) / (p2_w.DistanceTo(p3_w));
Double length_v1 = p1_w.DistanceTo(p4_w) / v;
Double length_v2 = p2_w.DistanceTo(p3_w) / v;
for (int j = 0; j <= v; j++)
{
//Creating points in v-direction
Point3d p1_v = new Point3d(p1_w.X + length_v1 * j * vecV1.X, p1_w.Y + length_v1 * j * vecV1.Y, p1_w.Z + length_v1 * j * vecV1.Z);
Point3d p2_v = new Point3d(p2_w.X + length_v2 * j * vecV2.X, p2_w.Y + length_v2 * j * vecV2.Y, p2_w.Z + length_v2 * j * vecV2.Z);
Vector3d vec_u1 = (p2_v - p1_v) / (p1_v.DistanceTo(p2_v));
Double length_u1 = p1_v.DistanceTo(p2_v) / u;
for (int k = 0; k <= u; k++)
{
//Creating points in u-direction and adding them to the global nodes.
Point3d p1_u = new Point3d(p1_v.X + length_u1 * k * vec_u1.X, p1_v.Y + length_u1 * k * vec_u1.Y, p1_v.Z + length_u1 * k * vec_u1.Z);
globalPoints.Add(p1_u);
//Create node instance of point created
Node node = new Node(p1_u, globalPoints.IndexOf(p1_u));
SetNodePosition(node, p1_u, cornerNodes, i, j, k, u, v, w);
SetNodeSurface(node, i, j, k, u, v, w);
nodes.Add(node);
}
}
}
// Putting together Hex elements:
List <int> jumpOne = new List <int>(); // List with points where it must move in v-direction
List <int> jumpUp = new List <int>(); // List with points where it must move upwards w-direction
//Finding indexes for jumping in v-direction
for (int i = 0; i < w; i++)
{
for (int j = 0; j < v - 1; j++)
{
jumpOne.Add((u - 1) + j * (u + 1) + (u + 1) * (v + 1) * i);
}
}
//Finding indexes for jumping in w-direction
for (int i = 0; i < w; i++)
{
jumpUp.Add((u + 1) * (v + 1) - (u + 1) - 2 + (u + 1) * (v + 1) * i);
}
int counter = 0;
for (int i = 0; i < u * v * w; i++) // Creating u*v*w hexahedron having the 8 corner points
{
//Putting together 8 points to create hex
List <Point3d> hex = new List <Point3d>()
{
globalPoints[counter],
globalPoints[(u + 1) + (counter)],
globalPoints[(u + 1) + (counter + 1)],
globalPoints[counter + 1],
globalPoints[(u + 1) * (v + 1) + counter],
globalPoints[(u + 1) * (v + 1) + (u + 1) + (counter)],
globalPoints[(u + 1) * (v + 1) + (u + 1) + (counter + 1)],
globalPoints[(u + 1) * (v + 1) + (counter + 1)],
};
hexPoints.Add(hex);
//Putting together 8 nodes to craete hex
List <Node> hexNodes = new List <Node>()
{
nodes[counter],
nodes[(u + 1) + (counter)],
nodes[(u + 1) + (counter + 1)],
nodes[counter + 1],
nodes[(u + 1) * (v + 1) + counter],
nodes[(u + 1) * (v + 1) + (u + 1) + (counter)],
nodes[(u + 1) * (v + 1) + (u + 1) + (counter + 1)],
nodes[(u + 1) * (v + 1) + (counter + 1)],
};
//Adding element number to each node which is part of the element
nodes[counter].AddElementNr(i);
nodes[(u + 1) + (counter)].AddElementNr(i);
nodes[(u + 1) + (counter + 1)].AddElementNr(i);
nodes[counter + 1].AddElementNr(i);
nodes[(u + 1) * (v + 1) + counter].AddElementNr(i);
nodes[(u + 1) * (v + 1) + (u + 1) + (counter)].AddElementNr(i);
nodes[(u + 1) * (v + 1) + (u + 1) + (counter + 1)].AddElementNr(i);
nodes[(u + 1) * (v + 1) + (counter + 1)].AddElementNr(i);
List <Line> edgesElement = CreateEdgesMesh(hex);
List <Brep> surfacesElement = CreateSurfaceMesh(hex);
edgeMesh.Add(edgesElement);
surfacesMesh.Add(surfacesElement);
//Showing the connectivity between local and global nodes
List <int> connectivity = new List <int>()
{
counter,
(u + 1) + (counter),
(u + 1) + (counter + 1),
counter + 1,
(u + 1) * (v + 1) + counter,
(u + 1) * (v + 1) + (u + 1) + (counter),
(u + 1) * (v + 1) + (u + 1) + (counter + 1),
(u + 1) * (v + 1) + (counter + 1),
};
Element element = new Element(hexNodes, i, connectivity);
elements.Add(element);
globalConnectivity.Add(connectivity);
//Checking if we need to move to next row
if (jumpOne.Contains(counter))
{
counter += 1;
}
//Checking if we need to move to next level
if (jumpUp.Contains(counter))
{
counter += (u + 2);
}
counter++;
}
return(hexPoints, globalConnectivity, edgeMesh, surfacesMesh, nodes, elements, globalPoints);
}
public static void Zoom(Point3d pMin, Point3d pMax, Point3d pCenter, double dFactor)
{
// Get the current document and database
Document acDoc = Application.DocumentManager.MdiActiveDocument;
Database acCurDb = HostApplicationServices.WorkingDatabase;
int nCurVport = System.Convert.ToInt32(Application.GetSystemVariable("CVPORT"));
// Get the extents of the current space no points
// or only a center point is provided
// Check to see if Model space is current
if (acCurDb.TileMode == true)
{
if (pMin.Equals(new Point3d()) == true &&
pMax.Equals(new Point3d()) == true)
{
pMin = acCurDb.Extmin;
pMax = acCurDb.Extmax;
}
}
else
{
// Check to see if Paper space is current
if (nCurVport == 1)
{
// Get the extents of Paper space
if (pMin.Equals(new Point3d()) == true &&
pMax.Equals(new Point3d()) == true)
{
pMin = acCurDb.Pextmin;
pMax = acCurDb.Pextmax;
}
}
else
{
// Get the extents of Model space
if (pMin.Equals(new Point3d()) == true &&
pMax.Equals(new Point3d()) == true)
{
pMin = acCurDb.Extmin;
pMax = acCurDb.Extmax;
}
}
}
// Start a transaction
using (Transaction acTrans = acCurDb.TransactionManager.StartTransaction())
{
// Get the current view
using (ViewTableRecord acView = acDoc.Editor.GetCurrentView())
{
Extents3d eExtents;
// Translate WCS coordinates to DCS
Matrix3d matWCS2DCS;
matWCS2DCS = Matrix3d.PlaneToWorld(acView.ViewDirection);
matWCS2DCS = Matrix3d.Displacement(acView.Target - Point3d.Origin) * matWCS2DCS;
matWCS2DCS = Matrix3d.Rotation(-acView.ViewTwist,
acView.ViewDirection,
acView.Target) * matWCS2DCS;
// If a center point is specified, define the min and max
// point of the extents
// for Center and Scale modes
if (pCenter.DistanceTo(Point3d.Origin) != 0)
{
pMin = new Point3d(pCenter.X - (acView.Width / 2),
pCenter.Y - (acView.Height / 2), 0);
pMax = new Point3d((acView.Width / 2) + pCenter.X,
(acView.Height / 2) + pCenter.Y, 0);
}
// Create an extents object using a line
using (Line acLine = new Line(pMin, pMax))
{
eExtents = new Extents3d(acLine.GeometricExtents.MinPoint,
acLine.GeometricExtents.MaxPoint);
}
// Calculate the ratio between the width and height of the current view
double dViewRatio;
dViewRatio = (acView.Width / acView.Height);
// Tranform the extents of the view
matWCS2DCS = matWCS2DCS.Inverse();
eExtents.TransformBy(matWCS2DCS);
double dWidth;
double dHeight;
Point2d pNewCentPt;
// Check to see if a center point was provided (Center and Scale modes)
if (pCenter.DistanceTo(Point3d.Origin) != 0)
{
dWidth = acView.Width;
dHeight = acView.Height;
if (dFactor == 0)
{
pCenter = pCenter.TransformBy(matWCS2DCS);
}
pNewCentPt = new Point2d(pCenter.X, pCenter.Y);
}
else // Working in Window, Extents and Limits mode
{
// Calculate the new width and height of the current view
dWidth = eExtents.MaxPoint.X - eExtents.MinPoint.X;
dHeight = eExtents.MaxPoint.Y - eExtents.MinPoint.Y;
// Get the center of the view
pNewCentPt = new Point2d(((eExtents.MaxPoint.X + eExtents.MinPoint.X) * 0.5),
((eExtents.MaxPoint.Y + eExtents.MinPoint.Y) * 0.5));
}
// Check to see if the new width fits in current window
if (dWidth > (dHeight * dViewRatio))
{
dHeight = dWidth / dViewRatio;
}
// Resize and scale the view
if (dFactor != 0)
{
acView.Height = dHeight * dFactor;
acView.Width = dWidth * dFactor;
}
// Set the center of the view
acView.CenterPoint = pNewCentPt;
// Set the current view
acDoc.Editor.SetCurrentView(acView);
}
// Commit the changes
acTrans.Commit();
}
}
/// <summary>
/// This procedure contains the user code. Input parameters are provided as regular arguments,
/// Output parameters as ref arguments. You don't have to assign output parameters,
/// they will have a default value.
/// </summary>
private void RunScript(List<Line> x, Point3d y, ref object A, ref object B, ref object C)
{
try
{
/////-------------------------------------------------------------------
// <Custom additional code>
List<IndexPair> id = new List<IndexPair>();
List<Vertice> vs = new List<Vertice>();
id.Add(new IndexPair(0, 1));
////////////////////////////////////////////////////
vs.Add(new Vertice(x[0].From, 1));
vs.Add(new Vertice(x[0].To, 0));
for (int i = 1; i < x.Count; i++)
{
bool sign1 = true;
bool sign2 = true;
int a = 0, b = 0;
for (int j = 0; j < vs.Count; j++)
{
if (vs[j].equalTo(x[i].From)) { sign1 = false; a = j; }
if (vs[j].equalTo(x[i].To)) { sign2 = false; b = j; }
if (!sign1 && !sign2) { break; }
}
if (sign1) { vs.Add(new Vertice(x[i].From)); a = vs.Count - 1; }
if (sign2) { vs.Add(new Vertice(x[i].To)); b = vs.Count - 1; }
vs[a].Add(b); vs[b].Add(a);
id.Add(new IndexPair(a, b));
}
for (int j = 0; j < vs.Count; j++)
{
vs[j].cleanRefer();
}
id.Sort(CompareDinosByLength2);
List<Line> output1 = new List<Line>();
for(int i = 0;i < id.Count;i++){
output1.Add(new Line(vs[id[i].I].pos, vs[id[i].J].pos));
}
for (int j = 0; j < vs.Count; j++)
{
if (vs[j].refer.Count == 1) { vs[j].energe = 1; }
if(y.DistanceTo(vs[j].pos) < 0.01){vs[j].energe = 0;signStart = j;}
}
for (int i = 0; i < 12; i++)
{
bool sign = true;
for (int j = 0; j < vs.Count; j++)
{
if (Vertice.Spread(ref vs, j)) sign = false;
}
if (sign) break;
}
//////
loop(ref vs, signStart);
//////
List<Point3d> out1 = new List<Point3d>();
List<string> out2 = new List<string>();
/* for (int j = 0; j < id.Count; j++)
{
double e1 = vs[id[j].I].energe;
double e2 = vs[id[j].J].energe;
double t = e1;
if(t > e2)t = e2;
if(t > 50)t = 50;
out2.Add(t);
out1.Add((vs[id[j].I].pos + vs[id[j].J].pos) / 2);
}
*/
// vs.Sort(CompareDinosByLength);检测用，使用后id失效
for (int j = 0; j < vs.Count; j++)
{
out2.Add(vs[j].Sequece.ToString());
out1.Add(vs[j].pos);
}
A = out1; B = out2;C = output1;
////---------------------------------------------------------------------
}
catch (Exception ex)
{
Print(ex.ToString());
}
}
/// <summary>
/// Constructor which takes Rhino point input.
/// </summary>
/// <param name="Center"></param>
/// <param name="SrcCenter"></param>
/// <param name="room"></param>
/// <param name="RCT"></param>
/// <param name="C_Sound_in"></param>
/// <param name="SampleRate_in"></param>
/// <param name="COTime_in"></param>
public Spherical_Receiver(Point3d Center, Point3d SrcCenter, double[] Attenuation, double C_Sound_in, double rho, int SampleRate_in, double COTime_in)
{
D_Length = Center.DistanceTo(SrcCenter);
Radius = 1;
Radius2 = Radius * Radius;
SampleRate = SampleRate_in;
CO_Time = COTime_in;
H_Origin = new Hare.Geometry.Point(Center.X, Center.Y, Center.Z);
Sound_Speed = C_Sound_in;
Rho_C = C_Sound_in * rho;
Atten = new double[8];
for (int o = 0; o < 8; o++) Atten[o] = Attenuation[o] * 2;
SizeMod = 1 / Math.PI;
Recs = new Directional_Histogram(SampleRate, CO_Time);
}
internal static List <MeshData> SolidInfoForCollection(Document doc, Point3d camPos, ObjectIdCollection ids)
{
var sols = new List <MeshData>();
using (var tr = doc.TransactionManager.StartOpenCloseTransaction())
{
foreach (ObjectId id in ids)
{
Entity ent = tr.GetObject(id, OpenMode.ForRead) as Entity;
// Entity handle to name the Three.js objects
String hand = ent.Handle.ToString();
Autodesk.AutoCAD.Colors.EntityColor clr = ent.EntityColor;
// Entity color to use for the Three.js objects
long b, g, r;
if (ent.ColorIndex < 256)
{
System.Byte byt = System.Convert.ToByte(ent.ColorIndex);
int rgb = Autodesk.AutoCAD.Colors.EntityColor.LookUpRgb(byt);
b = (rgb & 0xffL);
g = (rgb & 0xff00L) >> 8;
r = rgb >> 16;
}
else
{
b = 127;
g = 127;
r = 127;
}
String entColor = "0x" + String.Format("{0:X2}{1:X2}{2:X2}", r, g, b);
// Entity extents
Extents3d ext = ent.GeometricExtents;
var tmp = ext.MinPoint + 0.5 * (ext.MaxPoint - ext.MinPoint);
Vector3d dir = ext.MaxPoint - ext.MinPoint;
var mid = new Point3d(ext.MinPoint.X, tmp.Y, tmp.Z);
var dist = camPos.DistanceTo(mid);
if (id.ObjectClass.Name.Equals("AcDbSubDMesh"))
{
// Already a Mesh. Get the face info and clean it up
// a bit to export it as a THREE.Face3 which only has three vertices
var mesh = ent as SubDMesh;
Point3dCollection threeVertices = new Point3dCollection();
Autodesk.AutoCAD.Geometry.Int32Collection threeFaceInfo = new Autodesk.AutoCAD.Geometry.Int32Collection();
Point3dCollection vertices = mesh.Vertices;
int[] faceArr = mesh.FaceArray.ToArray();
int[] edgeArr = mesh.EdgeArray.ToArray();
Autodesk.AutoCAD.Geometry.Int32Collection faceVertices = new Autodesk.AutoCAD.Geometry.Int32Collection();
int verticesInFace = 0;
int facecnt = 0;
for (int x = 0; x < faceArr.Length; facecnt++, x = x + verticesInFace + 1)
{
faceVertices.Clear();
verticesInFace = faceArr[x];
for (int y = x + 1; y <= x + verticesInFace; y++)
{
faceVertices.Add(faceArr[y]);
}
// Merging of mesh faces can result in faces with multiple vertices
// A simple collinearity check can help remove those redundant vertices
bool continueCollinearCheck = false;
do
{
continueCollinearCheck = false;
for (int index = 0; index < faceVertices.Count; index++)
{
int v1 = index;
int v2 = (index + 1) >= faceVertices.Count ? (index + 1) - faceVertices.Count : index + 1;
int v3 = (index + 2) >= faceVertices.Count ? (index + 2) - faceVertices.Count : index + 2;
// Check collinear
Point3d p1 = vertices[faceVertices[v1]];
Point3d p2 = vertices[faceVertices[v2]];
Point3d p3 = vertices[faceVertices[v3]];
Vector3d vec1 = p1 - p2;
Vector3d vec2 = p2 - p3;
if (vec1.IsCodirectionalTo(vec2))
{
faceVertices.RemoveAt(v2);
continueCollinearCheck = true;
break;
}
}
} while (continueCollinearCheck);
if (faceVertices.Count == 3)
{
Point3d p1 = vertices[faceVertices[0]];
Point3d p2 = vertices[faceVertices[1]];
Point3d p3 = vertices[faceVertices[2]];
if (!threeVertices.Contains(p1))
{
threeVertices.Add(p1);
}
threeFaceInfo.Add(threeVertices.IndexOf(p1));
if (!threeVertices.Contains(p2))
{
threeVertices.Add(p2);
}
threeFaceInfo.Add(threeVertices.IndexOf(p2));
if (!threeVertices.Contains(p3))
{
threeVertices.Add(p3);
}
threeFaceInfo.Add(threeVertices.IndexOf(p3));
}
else if (faceVertices.Count == 4)
{ // A face with 4 vertices, lets split it to
// make it easier later to create a THREE.Face3
Point3d p1 = vertices[faceVertices[0]];
Point3d p2 = vertices[faceVertices[1]];
Point3d p3 = vertices[faceVertices[2]];
if (!threeVertices.Contains(p1))
{
threeVertices.Add(p1);
}
threeFaceInfo.Add(threeVertices.IndexOf(p1));
if (!threeVertices.Contains(p2))
{
threeVertices.Add(p2);
}
threeFaceInfo.Add(threeVertices.IndexOf(p2));
if (!threeVertices.Contains(p3))
{
threeVertices.Add(p3);
}
threeFaceInfo.Add(threeVertices.IndexOf(p3));
p1 = vertices[faceVertices[2]];
p2 = vertices[faceVertices[3]];
p3 = vertices[faceVertices[0]];
if (!threeVertices.Contains(p1))
{
threeVertices.Add(p1);
}
threeFaceInfo.Add(threeVertices.IndexOf(p1));
if (!threeVertices.Contains(p2))
{
threeVertices.Add(p2);
}
threeFaceInfo.Add(threeVertices.IndexOf(p2));
if (!threeVertices.Contains(p3))
{
threeVertices.Add(p3);
}
threeFaceInfo.Add(threeVertices.IndexOf(p3));
}
else
{
Application.DocumentManager.MdiActiveDocument.Editor.WriteMessage("Face with more than 4 vertices will need triangulation to import in Three.js ");
}
}
sols.Add(new MeshData(dist, hand, ext, threeVertices, threeFaceInfo, entColor));
}
else if (id.ObjectClass.Name.Equals("AcDb3dSolid"))
{
// Mesh the solid to export to Three.js
Autodesk.AutoCAD.DatabaseServices.Solid3d sld = tr.GetObject(id, OpenMode.ForRead) as Autodesk.AutoCAD.DatabaseServices.Solid3d;
MeshFaceterData mfd = new MeshFaceterData();
// Only triangles
mfd.FaceterMeshType = 2;
// May need change based on how granular we want the mesh to be.
mfd.FaceterMaxEdgeLength = dir.Length * 0.025;
MeshDataCollection md = SubDMesh.GetObjectMesh(sld, mfd);
Point3dCollection threeVertices = new Point3dCollection();
Autodesk.AutoCAD.Geometry.Int32Collection threeFaceInfo = new Autodesk.AutoCAD.Geometry.Int32Collection();
Point3dCollection vertices = md.VertexArray;
int[] faceArr = md.FaceArray.ToArray();
Autodesk.AutoCAD.Geometry.Int32Collection faceVertices = new Autodesk.AutoCAD.Geometry.Int32Collection();
int verticesInFace = 0;
int facecnt = 0;
for (int x = 0; x < faceArr.Length; facecnt++, x = x + verticesInFace + 1)
{
faceVertices.Clear();
verticesInFace = faceArr[x];
for (int y = x + 1; y <= x + verticesInFace; y++)
{
faceVertices.Add(faceArr[y]);
}
if (faceVertices.Count == 3)
{
Point3d p1 = vertices[faceVertices[0]];
Point3d p2 = vertices[faceVertices[1]];
Point3d p3 = vertices[faceVertices[2]];
if (!threeVertices.Contains(p1))
{
threeVertices.Add(p1);
}
threeFaceInfo.Add(threeVertices.IndexOf(p1));
if (!threeVertices.Contains(p2))
{
threeVertices.Add(p2);
}
threeFaceInfo.Add(threeVertices.IndexOf(p2));
if (!threeVertices.Contains(p3))
{
threeVertices.Add(p3);
}
threeFaceInfo.Add(threeVertices.IndexOf(p3));
}
}
sols.Add(new MeshData(dist, hand, ext, threeVertices, threeFaceInfo, entColor));
tr.Commit();
}
}
}
return(sols);
}
public override bool shoot(Point3d Start, Vector3d Dir, int Random, out double u, out double v, out int Srf_ID, out List <Point3d> X_PT, out List <double> t, out List <int> Code)
{
S_Origin = new Point3d(Start);
Srf_ID = 0;
while (true)
{
Point3d[] P = Rhino.Geometry.Intersect.Intersection.RayShoot(new Ray3d(S_Origin, Dir), BrepList, 1);
if (P == null)
{
X_PT = new List <Point3d> {
default(Point3d)
}; u = 0; v = 0; t = new List <double> {
0
}; Code = new List <int> {
0
}; return(false);
}
Voxels.PointIsInVoxel(P[0], ref XVoxel, ref YVoxel, ref ZVoxel);
try
{
SurfaceIndex = Voxels.VoxelList(XVoxel, YVoxel, ZVoxel);
}
catch (Exception)
{
//Rare floating point error on some computers... abandon the ray and start the next...
//Explanation: This would never happen on my IBM T43P laptop, but happened
//consistently millions of function calls into the calculation on my
//ASUS K8N-DL based desktop computer. I believe it has something to do with some quirk of that system.
//This try...catch statement is here in case this ever manifests on any user's computer.
//It is rare enough that this should not affect the accuracy of the calculation.
t = new List <double> {
0.0f
};
X_PT = new List <Point3d> {
default(Point3d)
};
u = 0;
v = 0;
Code = new List <int> {
0
};
return(false);
}
Point3d CP;
Vector3d N;
ComponentIndex CI;
double MD = 0.0001;
foreach (int index in SurfaceIndex)
{
if (BrepList[index].ClosestPoint(P[0], out CP, out CI, out u, out v, MD, out N) && (CI.ComponentIndexType == ComponentIndexType.BrepFace))
{
if ((Math.Abs(P[0].X - CP.X) < 0.0001) && (Math.Abs(P[0].Y - CP.Y) < 0.0001) && (Math.Abs(P[0].Z - CP.Z) < 0.0001))
{
Srf_ID = index;
X_PT = new List <Point3d> {
P[0]
};
t = new List <double> {
(double)(S_Origin.DistanceTo(X_PT[0]))
};
Code = new List <int>()
{
0
};
return(true);
}
}
}
S_Origin = new Point3d(P[0]);
}
}
/// <summary>
/// Computes the distance of a point to a given geometry. (Brep, Mesh or closed Surface)
/// </summary>
public static double DistanceTo(GeometryBase geometry, Point3d testPoint, int spaceType)
{
double distanceTo = 0;
Point3d closestPoint;
switch (spaceType)
{
// Brep design space
case 1:
closestPoint = ((Brep)geometry).ClosestPoint(testPoint);
distanceTo = testPoint.DistanceTo(closestPoint);
break;
// Mesh design space
case 2:
closestPoint = ((Mesh)geometry).ClosestPoint(testPoint);
distanceTo = testPoint.DistanceTo(closestPoint);
break;
// Solid surface design space (must be converted to brep)
case 3:
closestPoint = ((Surface)geometry).ToBrep().ClosestPoint(testPoint);
distanceTo = testPoint.DistanceTo(closestPoint);
break;
}
return distanceTo;
}
private double calculate_field(Point3d test_pt)
{
double num2 = 0.0;
int num5 = this.use_charges.Count - 1;
for (int i = 0; i <= num5; i++)
{
double x = test_pt.DistanceTo(this.use_charges[i]);
if (x < this.use_radii[i])
{
num2 += ((((this.cA * Math.Pow(x, 3.0)) / Math.Pow(this.use_radii[i], 3.0)) + ((this.cB * Math.Pow(x, 2.0)) / Math.Pow(this.use_radii[i], 2.0))) + ((this.cC * x) / this.use_radii[i])) + 1.0;
}
}
if (num2 == 0.0)
{
num2 = -1.0;
}
return num2;
}